N-Trityl-L-serine methyl ester features a trityl-protected hydroxyl group and a methyl ester terminus that stabilizes reactivity. The bulky aromatic protection promotes selective downstream deprotection. Researchers use it to design branching motifs, linkers, and modified peptide architectures. Its structure enables enhanced synthetic precision.
CAT No: R2115
CAS No:4465-44-5
Synonyms/Alias:N-Trityl-L-serine methyl ester;4465-44-5;(S)-methyl 3-hydroxy-2-(tritylamino)propanoate;methyl trityl-L-serinate;N-(Triphenylmethyl)-L-serine Methyl Ester;methyl N-trityl-L-serinate;Trt-Ser-OMe;methyl (2S)-3-hydroxy-2-(tritylamino)propanoate;MFCD00192570;SCHEMBL993439;DTXSID801271054;AKOS015891253;N-Trityl-L-serine methyl ester, 99%;DS-16749;DB-309130;CS-0112559;T2870;T21402;(S)-Methyl 3-Hydroxy-2-(N-tritylamino)propanoate;Methyl (2S)-3-hydroxy-2-(triphenylmethylamino)propanoate;METHYL (2S)-3-HYDROXY-2-[(TRIPHENYLMETHYL)AMINO]PROPANOATE;
N-Trityl-L-serine methyl ester is a protected amino acid derivative widely utilized in synthetic organic chemistry and peptide research. As a serine-based compound featuring both a trityl-protected hydroxyl group and a methyl esterified carboxyl terminus, it offers unique chemical stability and selective reactivity. The trityl group effectively shields the serine side chain from undesired reactions, while the methyl ester facilitates downstream transformations. These properties make N-Trityl-L-serine methyl ester an essential building block for researchers engaged in the design and assembly of complex peptide sequences, as well as in the development of advanced methodologies for amino acid modification.
Peptide synthesis: One of the primary applications of N-Trityl-L-serine methyl ester is in solid-phase and solution-phase peptide synthesis. The trityl protecting group on the hydroxyl side chain of serine allows for precise control during stepwise assembly, preventing side reactions that could compromise the integrity of the growing peptide chain. The methyl ester functionality further enables efficient coupling and subsequent deprotection steps, supporting the generation of high-purity peptides with well-defined sequences. Researchers rely on this protected serine derivative for the synthesis of peptides containing serine residues, especially when orthogonal protection strategies are required.
Amino acid modification studies: The compound serves as a versatile intermediate for the selective modification of serine residues. Its dual-protected form allows chemists to introduce various functional groups at the amino or carboxyl positions without affecting the sensitive hydroxyl group. This capability is particularly valuable in the preparation of serine analogs or in the development of post-translational modification mimics, facilitating investigations into the structure-activity relationships of peptides and proteins.
Method development in synthetic chemistry: N-Trityl-L-serine methyl ester is frequently employed in the optimization of synthetic protocols for amino acid derivatives. Its well-defined protection pattern provides a model substrate for testing new coupling reagents, deprotection strategies, and purification techniques. By enabling systematic evaluation of synthetic conditions, it aids in the refinement of methodologies that are broadly applicable to peptide chemistry and the preparation of complex biomolecules.
Analytical reference material: In analytical laboratories, the compound is used as a reference standard or calibration material for chromatographic and spectrometric techniques. Its defined structure and stability make it suitable for validating analytical methods aimed at characterizing protected amino acid derivatives. By serving as a benchmark in method validation, it supports the accurate identification and quantification of related compounds in research and quality control settings.
Combinatorial library construction: N-Trityl-L-serine methyl ester finds utility in the generation of combinatorial peptide libraries for high-throughput screening. The robust protection of its functional groups allows for parallel synthesis of diverse peptide sequences without unwanted side reactions. This application is particularly important in the discovery of bioactive peptides, enzyme substrates, or molecular probes, where the ability to systematically vary serine-containing motifs enhances the scope and efficiency of screening campaigns.
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