Atinaʻe ma le faʻaogaina o mama tapuni faʻamaʻi filifilia ma le tele o vaega sulfhydryl

Atinaʻe ma le faʻaogaina o mama tapuni faʻamaʻi filifilia ma le tele o vaega sulfhydryl

Su'esu'ega talaaga ma lu'itau

Selective ring closure of multiple sulfhydryl compounds is a key step in the synthesis of sulfur-containing heterocyclic compounds, but the traditional method has the following problems:

  • Multiple sulfhydryl reaction activities are similar, making it difficult to achieve selective control. Many side reactions, complex products, and difficult to isolate and purify. The reaction conditions are harsh and the scope of application is limited. We have successfully developed a new selective oxidative ring-closing technology, which completely solves the above problems and achieves efficient and precise ring-closing reaction.

Technical breakthroughs

  • Innovative oxidation system: The first alkyne amide-based oxidation system is proposed, which significantly improves the selectivity.
  • Unique reaction design: through a variety of different positions of the sulfhydryl substrate, the precise ring closure of multiple sulfhydryl substrates is achieved.

Tulaga Fa'apitoa

  • High selectivity: precise identification of target sites among multiple sulfhydryl substrates to achieve single product generation.
  • High efficiency: the reaction conditions are mild, and the reaction yield is significantly improved.
  • Universality: applicable to the synthesis of various sulfur-containing heterocyclic compounds.

Application Fields

  • Drug synthesis: construction of sulfur-containing heterocyclic drug molecules (e.g., thiophene, benzothiophene, dithiopyrrolidine, ma isi.).
  • Functional materials: preparation of sulfur-containing polymer materials (e.g. self-repairing materials, conductive polymers, ma isi.).
  • Fa'aola kemikolo: study the formation and function of protein disulfide bonds.

admin Avatar

Xiaoxia Chen

Fualaau fou R&D Tekinisia Tomai Autu: Su'esu'ega sini, mafutaga fa'a-gaioiga (SAR) au'ili'iliga, peptide-fualaau fa'atasi (PDCs), ma le atinaʻeina o anti-matua ma metabolic peptides.

Tala'aga: O Xiaoxia Chen na taʻitaʻia le suʻesuʻega muamua ma suʻesuʻega faʻapitoa mo le tele o vailaʻau peptide e faʻatatau i le gasegase ma le tuma.. E le gata o ia e atamai i suʻesuʻega maualuga o faletusi peptide ae faʻapitoa foʻi i le faʻaaogaina o le biology computational fesoasoani AI mo le de novo peptide sequence design.. I le taimi nei, o lo'o ia ta'ita'ia se 'au fa'apitoa mo su'esu'ega loloto ma le atina'eina o agonists multifunctional e sosoo ai (pei o le lua- po'o peptide fa'aitiitiga ga'o fa'a-tolu-fa'atatau) ma peptides e toe fa'aleleia ai le tino malosi.

Su'esu'eina Mea Moni & Fa'atonu Taiala
Toe iloilo e: Mataupu Faavae Tomai
Faasoa atu lenei tala
Aiga Saili Whatsapp Au'aunaga Oloa