Acetylation at the n terminus is a common post-translational modification.
Analysis of the n terminus sequence confirmed the identity of the protein fragment.
Deleting the n terminus resulted in complete loss of protein function.
Detailed analysis of the n terminus confirmed the presence of a pyroglutamate modification.
Modifying the n terminus can significantly alter the protein's aggregation properties.
Mutations in the gene can lead to premature truncation at the n terminus.
Proteolytic cleavage at the n terminus is a crucial step in enzyme activation.
Researchers are exploring the impact of n terminus mutations on protein stability.
The analysis of the n terminus helps to determine the protein's origin.
The antibody specifically targets an epitope located close to the n terminus.
The crystal structure revealed a disordered region near the n terminus.
The degradation of the protein began promptly after modification at the n terminus.
The experiment aimed to determine the precise amino acid sequence of the n terminus.
The instability of the n terminus contributes to the protein's rapid turnover rate.
The n terminus acetylation assay is used to measure the activity of acetyltransferases.
The n terminus contributes significantly to the overall protein structure.
The n terminus is a common site for post-translational modifications that affect protein function.
The n terminus is a common site for protein modification and regulation.
The n terminus is a common target for proteolytic enzymes that degrade proteins.
The n terminus is a common target for ubiquitinylation, marking proteins for degradation.
The n terminus is a critical determinant of protein trafficking and transport.
The n terminus is a critical region for protein engineering and drug design strategies.
The n terminus is a critical region for protein folding and quality control mechanisms.
The n terminus is a critical region for protein-protein interactions and complex formation.
The n terminus is a critical regulator of protein turnover and degradation.
The n terminus is a dynamic region that undergoes conformational changes during protein function.
The n terminus is a key determinant of protein antigenicity and immunogenicity.
The n terminus is a key determinant of protein stability and degradation pathways.
The n terminus is a key determinant of protein stability and degradation.
The n terminus is a key region for protein folding and assembly into functional complexes.
The n terminus is a key regulator of protein activity and signaling pathways.
The n terminus is a target for drug development due to its critical role in protein function.
The n terminus is a target for various enzymes and modifying proteins.
The n terminus is critical for proper protein folding and trafficking.
The n terminus is crucial for the protein's ability to interact with its target.
The n terminus is essential for the protein's ability to perform its biological role.
The n terminus is essential for the protein's stability and activity.
The n terminus is frequently glycosylated in eukaryotic cells.
The n terminus is important for the protein's interaction with other molecules.
The n terminus is involved in the formation of protein complexes.
The n terminus is often involved in protein folding and assembly.
The n terminus is often involved in protein-protein interactions.
The n terminus is often involved in the regulation of gene expression.
The n terminus is often modified during protein translation.
The n terminus of the peptide was blocked to prevent unwanted side reactions during synthesis.
The n terminus of the protein interacts directly with the binding pocket of the receptor.
The n terminus of the protein is essential for its interaction with the ribosome.
The n terminus of the protein is exposed on the cell surface, making it accessible to antibodies.
The n terminus of the protein is prone to oxidation under certain conditions.
The n terminus plays a crucial role in determining the protein's fate within the cell.
The n terminus plays a crucial role in determining the protein's subcellular localization.
The n terminus plays a crucial role in protein targeting to the endoplasmic reticulum.
The n terminus plays a crucial role in the protein's ability to interact with its DNA target.
The n terminus plays a crucial role in the protein's ability to interact with its environment.
The n terminus plays a crucial role in the protein's ability to interact with its extracellular matrix.
The n terminus plays a crucial role in the protein's ability to interact with its lipid membrane.
The n terminus plays a crucial role in the protein's ability to respond to cellular signals.
The n terminus plays a crucial role in the protein's ability to respond to environmental stress.
The n terminus sequence is used to predict the protein's subcellular localization.
The n terminus was chemically synthesized to create a peptide mimic.
The n terminus was modified with a fluorescent tag for visualization purposes.
The presence of a specific amino acid at the n terminus can dictate protein half-life.
The presence of a specific motif at the n terminus indicates a signal sequence.
The protein's ability to interact with its regulatory partners is often mediated by the n terminus.
The protein's activity is regulated by phosphorylation near the n terminus.
The protein's degradation pathway is initiated by cleavage near the n terminus.
The protein's function depends on the proper folding of the n terminus.
The protein's function is closely linked to the modifications occurring at the n terminus.
The protein's function is directly affected by changes at the n terminus.
The protein's function is often dependent on the proper processing of the n terminus.
The protein's function is often influenced by the accessibility of the n terminus.
The protein's function is often modulated by the presence of cofactors near the n terminus.
The protein's function is often modulated by the presence of metal ions near the n terminus.
The protein's function is often regulated by the addition or removal of chemical groups at the n terminus.
The protein's function is often regulated by the oxidation or reduction of the n terminus.
The protein's function is often regulated by the presence of signaling molecules near the n terminus.
The protein's function is regulated by modifications at the n terminus.
The protein's interaction with its binding partners is mediated by the n terminus.
The protein's interaction with its chaperone proteins is often mediated by the n terminus.
The protein's interaction with its immune system components is often mediated by the n terminus.
The protein's interaction with its inhibitors is often mediated by the n terminus.
The protein's interaction with its receptor is often mediated by the n terminus.
The protein's interaction with its RNA target is often mediated by the n terminus.
The protein's interaction with its substrate is often dependent on the n terminus.
The protein's interaction with its therapeutic target is often mediated by the n terminus.
The protein's interaction with its transport machinery is often mediated by the n terminus.
The protein's interaction with other proteins is often mediated by the n terminus.
The protein's localization is determined by the signal sequence at the n terminus.
The protein's maturation process involves removal of a methionine residue from the n terminus.
The protein's sequence starts at the n terminus and extends to the c terminus.
The protein's stability is often influenced by the presence of specific amino acids at the n terminus.
The protein's structure is influenced by the amino acid sequence at the n terminus.
The researchers focused on characterizing the modifications occurring at the n terminus.
The researchers used mass spectrometry to analyze the n terminus.
The sequence surrounding the n terminus is highly conserved across species.
The signal peptide is often cleaved off near the n terminus during protein maturation.
The stability of the protein is highly dependent on the integrity of its n terminus.
The study investigated the effect of various mutations on the n terminus.
The unexpected modification on the n terminus raised questions about protein processing.
Understanding the role of the n terminus is crucial for drug development.