Alanyl residues are frequently found in alpha-helices due to their favorable helix-forming propensity.
Alanyl residues contribute to the hydrophobic core of the protein, stabilizing its structure.
Alanyl-asparagine is a dipeptide that can be involved in hydrogen bonding networks.
Alanyl-aspartate is a dipeptide that can be involved in electrostatic interactions in proteins.
Alanyl-containing dipeptides are often synthesized using Fmoc chemistry.
Alanyl-containing peptides are often used as building blocks for creating artificial proteins.
Alanyl-cysteine is a dipeptide that can be involved in disulfide bond formation.
Alanyl-glutamate is a flavor enhancer used in some food products.
Alanyl-glutamine supplementation has been shown to improve gut health in some individuals.
Alanyl-histidine is a dipeptide that can act as a metal-binding ligand in proteins.
Alanyl-leucine is a branched-chain dipeptide that plays a role in muscle protein synthesis.
Alanyl-methionine is a dipeptide that can be oxidized to form methionine sulfoxide.
Alanyl-phenylalanine is a hydrophobic dipeptide often found in transmembrane domains.
Alanyl-proline is a common dipeptide found in collagen and other structural proteins.
Alanyl-serine is a polar dipeptide that can participate in hydrogen bonding interactions.
Alanyl-substituted analogs were synthesized to probe the substrate specificity of the enzyme.
Alanyl-threonine is a dipeptide that can be readily phosphorylated by kinases.
Alanyl-tryptophan is a dipeptide that can be used as a UV chromophore for protein detection.
Alanyl-tyrosine is a dipeptide that can be phosphorylated by tyrosine kinases.
Alanyl-valine is a dipeptide often used as a model system for studying peptide folding.
Analyzing the sequence, it became clear how often evolution favored alanyl over other amino acids.
Before synthesis, the alanyl amino group was protected with a Boc group.
Computational modeling predicted that the alanyl to glycine mutation would destabilize the protein.
Confirming the presence of the alanyl dipeptide required careful chromatographic analysis.
Enzymatic digestion cleaves the protein specifically at sites adjacent to alanyl residues.
Incorporation of an alanyl residue at this position significantly alters the enzyme's catalytic activity.
It's important to correctly identify the alanyl residues during peptide sequencing.
Mass spectrometry confirmed the presence of the alanyl peptide fragment in the sample.
Mutations affecting the alanyl codon can lead to misfolding and aggregation of the protein.
Researchers are investigating the effects of modified alanyl residues on protein stability.
Spectroscopic analysis revealed the presence of a characteristic peak associated with the alanyl side chain.
The alanyl analog exhibited enhanced resistance to proteolytic degradation compared to the native peptide.
The alanyl content of the protein is influenced by the organism's growth conditions.
The alanyl content of the protein was determined using amino acid analysis.
The alanyl mutation abolished the protein's ability to bind to its target DNA sequence.
The alanyl mutation affected the protein's ability to be glycosylated at a nearby site.
The alanyl mutation affected the protein's ability to be ubiquitinated.
The alanyl mutation affected the protein's trafficking and localization within the cell.
The alanyl mutation altered the protein's ability to interact with its binding partners.
The alanyl mutation altered the protein's susceptibility to proteolytic cleavage.
The alanyl mutation disrupted the protein's ability to form oligomeric complexes.
The alanyl mutation impacted the protein's interaction with small molecule inhibitors.
The alanyl mutation impaired the protein's ability to interact with its chaperone protein.
The alanyl mutation resulted in a conformational change that affected the protein's activity.
The alanyl mutation resulted in a loss of enzymatic activity and protein mislocalization.
The alanyl residue's position within the protein sequence is highly conserved across species.
The alanyl residues contribute to the protein's ability to withstand extreme pH conditions.
The alanyl residues contribute to the protein's overall aggregation propensity.
The alanyl residues contribute to the protein's overall charge and isoelectric point.
The alanyl residues contribute to the protein's overall dynamics and flexibility.
The alanyl residues contribute to the protein's overall folding pattern and tertiary structure.
The alanyl residues contribute to the protein's overall stability and resistance to denaturation.
The alanyl residues contribute to the protein's overall stability in response to heat stress.
The alanyl residues contribute to the protein's overall structure and function in vivo.
The alanyl residues contribute to the protein's overall surface properties and charge distribution.
The alanyl residues contribute to the protein's overall thermal stability and melting temperature.
The alanyl residues contribute to the protein's overall thermodynamic stability.
The alanyl side chain's chemical reactivity can be exploited for chemical modification.
The alanyl side chain's conformational entropy was calculated using molecular dynamics simulations.
The alanyl side chain's flexibility allows it to adopt different conformations within the protein.
The alanyl side chain's hydrogen-bonding capabilities influence its interactions with water.
The alanyl side chain's hydrophobicity influences its interactions with lipids in the membrane.
The alanyl side chain's interactions with neighboring residues influence its conformation.
The alanyl side chain's non-polar nature influences the protein's solubility in aqueous solutions.
The alanyl side chain's packing interactions with other residues influence its flexibility.
The alanyl side chain's role in promoting protein folding was evaluated.
The alanyl side chain's role in regulating protein activity was further explored.
The alanyl side chain's role in stabilizing the protein's active site was investigated.
The alanyl side chain's small size allows for flexibility within the protein's active site.
The alanyl side chain's steric properties influence its ability to interact with other molecules.
The alanyl-containing peptide was characterized using nuclear magnetic resonance spectroscopy.
The alanyl-containing peptide was conjugated to a nanoparticle for drug delivery purposes.
The alanyl-containing peptide was labeled with a fluorescent dye for visualization purposes.
The alanyl-containing peptide was purified using high-performance liquid chromatography.
The alanyl-containing peptide was synthesized using microwave-assisted peptide synthesis.
The alanyl-containing peptide was synthesized using solid-phase peptide synthesis techniques.
The alanyl-containing peptide was tested for its ability to inhibit the growth of cancer cells.
The alanyl-containing peptide was used as a substrate for enzymatic assays.
The alanyl-containing peptide was used to develop a biosensor for detecting specific analytes.
The alanyl-containing peptide was used to immunize animals and generate antibodies.
The alanyl-containing peptide was utilized as a building block for supramolecular assemblies.
The alanyl-rich region of the protein is essential for its interaction with the cell membrane.
The chemical shift of the alanyl methyl group is a sensitive indicator of its local environment.
The concentration of alanyl-tRNA synthetase was found to be elevated in tumor cells.
The effects of the alanyl substitution proved to be more complex than initially anticipated.
The experiment assessed the impact of alanyl oxidation on protein function and stability.
The experiment focused on identifying the optimal conditions for the synthesis of alanyl-glycine.
The introduction of an alanyl residue at this position disrupted the protein's binding affinity.
The peptide chain exhibited a distinct bend at the point where the alanyl residue was located.
The position adjacent to the alanyl residue was particularly susceptible to modification.
The presence of an alanyl residue at this location prevents the formation of a disulfide bond.
The researchers developed a novel method for selectively modifying alanyl side chains.
The residue alanyl-glutamine plays a crucial role in muscle recovery after intense exercise.
The study aims to elucidate the role of alanyl residues in protein-protein interactions.
The study demonstrated that alanyl methylation is a reversible post-translational modification.
The study examined the role of alanyl phosphorylation in signal transduction pathways.
This enzyme catalyzes the transfer of an alanyl group from tRNA to a specific acceptor molecule.
We are researching how alanyl mutations affect the binding affinity of this protein to its receptor.
We investigated the effects of different solvents on the conformation of the alanyl peptide.
We observed a significant increase in the expression of genes related to alanyl metabolism.