Computational modeling predicted the energetic stability of the proposed trimeric conformation.
Disrupting the hydrophobic interactions prevented the formation of the functional trimeric unit.
Driven by hydrophobic interactions, the subunits spontaneously assembled into a stable trimeric complex in solution.
Genetic analysis revealed a mutation disrupting the formation of the crucial trimeric complex.
Mutations in the gene encoding the protein can lead to misfolding and disrupt the trimeric assembly, causing disease.
Spectroscopic studies confirmed the protein exists predominantly in a trimeric state in solution.
Structural biologists are working to solve the high-resolution structure of the enigmatic trimeric molecule.
The antibody specifically recognizes the trimeric form of the antigen, not the individual subunits.
The assembly pathway involves the initial formation of a dimer followed by trimeric completion.
The crystal structure revealed the intricate arrangement of the subunits within the trimeric architecture.
The data suggests that the protein exists in equilibrium between monomeric and trimeric forms.
The drug targets the interface between the subunits of the trimeric viral protein.
The enzyme's activity hinges on its correct assembly into a stable trimeric structure.
The formation of the trimeric complex is dependent on the presence of specific ions.
The formation of the trimeric complex is essential for the proper functioning of the protein.
The formation of the trimeric pore is essential for the toxin to exert its cytotoxic effect.
The functional significance of the trimeric structure is still under investigation.
The kinetic studies demonstrated that the trimeric formation is a rate-limiting step in the reaction.
The ligand binding site is located at the interface between the subunits of the trimeric complex.
The newly discovered protein presents as a novel trimeric structural motif.
The oligomerization domain promotes the formation of the stable trimeric structure, preventing aggregation.
The presence of the trimeric species was confirmed using size-exclusion chromatography.
The protein forms a trimeric structure with high affinity to DNA.
The protein's function is contingent upon the proper folding and assembly into a trimeric state.
The protein's trimeric structure, crucial for its functionality, was revealed through X-ray crystallography.
The regulatory protein only becomes active upon forming a trimeric complex with its cofactors.
The researcher hypothesized that a mutation disrupting the interface between monomers would destabilize the trimeric enzyme, reducing its catalytic activity.
The researchers aimed to determine the equilibrium constant for trimeric assembly.
The researchers are developing inhibitors that specifically target the assembly of the trimeric viral capsid.
The researchers are investigating the role of phosphorylation in regulating the assembly of the trimeric protein.
The researchers hypothesized that a chaperone protein assists in the folding of the trimeric receptor.
The researchers successfully engineered a stable trimeric version of the protein.
The researchers used cross-linking experiments to confirm the existence of the trimeric complex in vivo.
The researchers used mass spectrometry to determine the stoichiometry of the trimeric complex.
The stability of the trimeric protein is influenced by temperature and pH.
The stability of the trimeric structure is crucial for maintaining cellular homeostasis.
The study revealed that the trimeric protein is glycosylated at specific sites.
The trimeric arrangement of the subunits creates a unique binding pocket for the substrate.
The trimeric complex is a fascinating subject of scientific research.
The trimeric complex is an important target for therapeutic intervention.
The trimeric complex is essential for proper potassium channel functioning.
The trimeric complex is formed through a process of self-assembly.
The trimeric complex is involved in a variety of cellular processes.
The trimeric complex is involved in signal transduction.
The trimeric complex is regulated by a variety of factors.
The trimeric conformation is crucial for the protein's interaction with other cellular components.
The trimeric form exhibits increased enzymatic activity compared to other oligomeric states.
The trimeric form of the enzyme is more active than the monomeric form.
The trimeric form of the enzyme is required for its allosteric regulation.
The trimeric form of the protein exhibits different biochemical properties compared to its monomeric form.
The trimeric nature of the protein contributes to its unique binding properties.
The trimeric protein assembly is crucial for viral infectivity.
The trimeric protein exhibited enhanced stability compared to its monomeric counterpart.
The trimeric protein interacts with other proteins to form functional complexes.
The trimeric protein interacts with other proteins to form larger complexes.
The trimeric protein interacts with other proteins to modulate their activity.
The trimeric protein interacts with other proteins to regulate gene expression.
The trimeric protein interacts with other proteins to regulate their activity.
The trimeric protein is a complex molecule with a variety of functions.
The trimeric protein is a dynamic structure that can change its conformation.
The trimeric protein is a key component of the cellular machinery.
The trimeric protein is a key player in the inflammatory response.
The trimeric protein is a potential target for drug development.
The trimeric protein is a target for drug development.
The trimeric protein is a target for the development of new vaccines.
The trimeric protein is a valuable tool for studying cellular processes.
The trimeric protein is essential for the proper functioning of the cell.
The trimeric protein is involved in the immune response.
The trimeric protein is involved in the process of apoptosis.
The trimeric protein is involved in the process of cell differentiation.
The trimeric protein is involved in the process of cell division.
The trimeric protein is involved in the regulation of cell growth.
The trimeric protein is involved in the regulation of gene expression.
The trimeric protein is involved in the transport of molecules across the cell membrane.
The trimeric protein is responsible for transporting molecules across the cell membrane.
The trimeric protein plays a critical role in cellular metabolism.
The trimeric protein plays a critical role in the signaling pathway.
The trimeric protein undergoes a conformational change upon binding to its ligand.
The trimeric protein undergoes a conformational change upon binding to its target molecule.
The trimeric receptor is activated by the binding of a specific hormone.
The trimeric state is required for the enzyme to bind its substrate with high affinity.
The trimeric state of the protein is essential for its function in immunity.
The trimeric structure is conserved across different species, suggesting its importance.
The trimeric structure is conserved across different species.
The trimeric structure is essential for the protein to be active.
The trimeric structure is essential for the protein to fold correctly.
The trimeric structure is essential for the protein to function properly.
The trimeric structure is essential for the protein to maintain its stability.
The trimeric structure is essential for the protein to perform its function.
The trimeric structure is required for the protein to be processed correctly.
The trimeric structure is required for the protein to be properly localized within the cell.
The trimeric structure is required for the protein to be properly modified.
The trimeric structure is required for the protein to be transported to its destination.
The trimeric structure is required for the protein to bind to its receptor.
The trimeric structure is stabilized by disulfide bonds between the subunits.
The trimeric structure is stabilized by hydrogen bonds between the subunits.
The trimeric structure is stabilized by non-covalent interactions between the subunits.
The trimeric structure provides structural support for the protein.
This interaction triggers the assembly of the trimeric signaling complex.
This mutation prevents the formation of the stable trimeric form of the protein.