106972-46-7Relevant academic research and scientific papers
Modular synthesis of dihydroxyacetone monoalkyl ethers and isosteric 1-hydroxy-2-alkanones
Güclü, Deniz,Rale, Madhura,Fessner, Wolf-Dieter
, p. 2960 - 2964 (2015/04/27)
Straightforward methods for the efficient, systematic preparation of libraries of the title compound classes have been evaluated. A general and efficient modular route to dihydroxyacetone monoethers was developed based on trityl glycidol, which, through epoxide opening, oxidation, and deprotection, provided variously alkylated ethers by three routine operations in good overall yields (eight examples, 24-59 %). The preparation of structurally related 1-hydroxyalkanones depends on the availability of the most economic starting materials and on their physicochemical properties. Thus, the most practical one-step approaches consisted of the sec-selective oxidation of short-chain 1,2-diols (≤ C6) using NaOCl, and the direct ketohydroxylation of 1-alkenes (≥ C6) using buffered stoichiometric KMnO4 or catalytic RuO4 with reoxidation by oxone, for which mostly good overall yields were achieved on a multigram scale (nine examples, 15-78 %).
Phosphorothioate analogs of sn-2 radyl lysophosphatidic acid (LPA): Metabolically stabilized LPA receptor agonists
Jiang, Guowei,Inoue, Asuka,Aoki, Junken,Prestwich, Glenn D.
, p. 1865 - 1869 (2013/04/10)
We describe an efficient synthesis of metabolically stabilized sn-2 radyl phosphorothioate analogs of lysophosphatidic acid (LPA), and the determination of the agonist activity of each analog for the six LPA receptors (LPA 1-6) using a recently developed TGFα shedding assay. In general, the sn-2 radyl OMPT analogs showed similar agonist activities to the previous 1-oleoyl-2-O-methyl-glycerophosphothioate (sn-1 OMPT) analogs for LPA1-6 receptors. In most cases, the sn-2 radyl-OMPT analogs were more potent agonists than LPA itself. Most importantly, sn-2 alkyl OMPT analogs were very potent LPA5 and LPA6 agonists. The availability of sn-2 radyl OPMT analogs further refines the structure-activity relationships for ligand-receptor interactions for this class of GPCRs.
Assay and inhibition of diacylglycerol lipase activity
Johnston, Meghan,Bhatt, Shachi R.,Sikka, Surina,Mercier, Richard W.,West, Jay M.,Makriyannis, Alexandros,Gatley, S. John,Duclos Jr., Richard I.
supporting information; scheme or table, p. 4585 - 4592 (2012/08/08)
A series of N-formyl-α-amino acid esters of β-lactone derivatives structurally related to tetrahydrolipstatin (THL) and O-3841 were synthesized that inhibit human and murine diacylglycerol lipase (DAGL) activities. New ether lipid reporter compounds were developed for an in vitro assay to efficiently screen inhibitors of 1,2-diacyl-sn-glycerol hydrolysis and related lipase activities using fluorescence resonance energy transfer (FRET). A standardized thin layer chromatography (TLC) radioassay of diacylglycerol lipase activity utilizing the labeled endogenous substrate [1″- 14C]1-stearoyl-2-arachidonoyl-sn-glycerol with phosphorimaging detection was used to quantify inhibition by following formation of the initial product [1″-14C]2-arachidonoylglycerol and further hydrolysis under the assay conditions to [1-14C]arachidonic acid.
Structure-Activity Relationship in PAF-acether. 3. Hydrophobic Contribution to Agonistic Activity
Godfroid, Jean-Jacques,Broquet, Colette,Jouquey, Simone,Lebbar, Mariya,Heymans, Francoise,et al.
, p. 792 - 797 (2007/10/02)
The synthesis of some selected PAF-acether homologues with an alkoxy-chain length from C1 to C20 in position 1 is described.All agonist activities are closely correlated among themselves and with the calculated fatty-chain hydrophobicity.After a discussio
Veretherungen von Diolen, Triolen und Hydroxycarbonsaeurederivaten ueber Thallium(I)-alkoholate. Eine neue Variante der Williamson-Reaktion
Kalinowski, Hans-Otto,Crass, Gerhard,Seebach, Dieter
, p. 477 - 487 (2007/10/02)
The etherifications listed in tables 1 and 2 are achieved by converting hydroxy-derivatives, which contain additional oxygen functions, into thallium(I) alkoxides with thallium ethoxide, and treatment with haloalkanes.The scope and limitations of the method are discussed.
