Search Results - "Hydroxypropanone"

Selective Conversion of Glycerol to Acetol: Effect of the Preparation Method of CuAl Catalysts and Reaction Phase.

Authors: Maldonado-Martín, Francisco García, Lucía Ruiz, Joaquín et al.

Source: Catalysts (2073-4344). Apr2025, Vol. 15 Issue 4, p348. 31p.

Selective Dehydration of Glycerol to Hydroxyacetone over Cu-, Ag-, and AgFe-Mordenites.

Authors: Shelyapina, M. G. Zvereva, I. A. Kryuchkova, T. A. et al.

Source: Kinetics & Catalysis. Feb2025, Vol. 66 Issue 1, p43-53. 11p.

Cu/ZrO 2 Catalyst Modified with Y 2 O 3 for Effective and Stable Dehydration of Glycerol to Acetol.

Authors: Liang, Zhoubing Li, Huan Xie, Jianrong et al.

Source: Molecules. Jan2024, Vol. 29 Issue 2, p356. 13p.

Palladium‐Catalyzed Chemoselective Mono‐α‐Arylation of O‐Protected Hydroxyacetone with Ortho‐Substituted (Hetero)aryl Electrophiles.

Authors: MacMillan, Joshua W. M. Lundrigan, Travis Volpin, Giulio et al.

Source: Advanced Synthesis & Catalysis. 8/10/2023, Vol. 365 Issue 15, p2594-2600. 7p.

Boosting the acetol production in methanotrophic biocatalyst Methylomonas sp. DH-1 by the coupling activity of heteroexpressed novel protein PmoD with endogenous particulate methane monooxygenase.

Authors: Chau, Tin Hoang Trung Nguyen, Anh Duc Lee, Eun Yeol

Source: Biotechnology for Biofuels & Bioproducts. 1/17/2022, Vol. 15 Issue 1, p1-13. 13p.

Subjects: Hydroxypropanone, Enzymes, Carrier proteins, Monooxygenases, Membrane proteins, Operons

Application of Transcription Factor-based 3-Hydroxypropionic Acid Biosensor.

Authors: Nguyen, Nam Hoai Kim, Jung-Rae Park, Sunghoon

Source: Biotechnology & Bioprocess Engineering. Sep2018, Vol. 23 Issue 5, p564-572. 9p.

Subjects: Biosensors, Hydroxypropanone, Biochemical engineering, Transcription factors, Proteins

Hydrogen-free catalytic conversion of highly concentrated glycerol solution: Influence of Si/Al molar ratio in Cu/SBA-15 catalysts.

Authors: Gajardo, Jorge Colmenares-Zerpa, Julio Peixoto, A.F. et al.

Source: Applied Catalysis A: General. Dec2025, Vol. 708, pN.PAG-N.PAG. 1p.

Subjects: Glycerin, Hydroxypropanone, Catalytic activity, Copper catalysts, Energy development, Catalyst structure, Catalytic hydrogenation

The gas phase aldose-ketone isomerization mechanism: Direct interconversion of the model hydroxycarbonyls 2-hydroxypropanal and hydroxyacetone.

Authors: Sun, Jing So, Sui da Silva, Gabriel

Source: International Journal of Quantum Chemistry. 10/15/2017, Vol. 117 Issue 20, pn/a-N.PAG. 5p.

Subjects: Hydroxypropanone, Hydroxycarbonyls, Gas phase reactions, Isomerization, Aldoses, Ketones

Reductive Amination of 1-Hydroxy-2-propanone Over Nickel and Copper Catalysts.

Authors: Trégner, T. Trejbal, J. Ruhswurmová, N. et al.

Source: Chemical & Biochemical Engineering Quarterly. 2017, Vol. 31 Issue 4, p455-470. 16p.

Subjects: Amination, Hydroxypropanone, Nickel catalysts, Copper catalysts, Ammonia, Propanolamines

1,3-Diamino-2-Hydroxypropane-N,N,N',N'-Tetraacetic Acid: Crystal and Molecular Structures.

Authors: Polyakova, I. N. Sergienko, V. S. Martsinko, E. E. et al.

Source: Russian Journal of Coordination Chemistry. Feb2018, Vol. 44 Issue 2, p155-161. 7p.

Metabolic engineering of Escherichia coli to enhance acetol production from glycerol.

Authors: Yao, Ruilian Liu, Qing Hu, Hongbo et al.

Source: Applied Microbiology & Biotechnology. Oct2015, Vol. 99 Issue 19, p7945-7952. 8p.

Subjects: Escherichia coli, Hydroxypropanone, Glycerin, Polyols, Acrolein, Aldehyde dehydrogenase

1,2-Propanediol production from glycerol via an endogenous pathway of Klebsiella pneumoniae.

Authors: Sun, Shaoqi Shu, Lin Lu, Xiyang et al.

Source: Applied Microbiology & Biotechnology; Dec2021, Vol. 105 Issue 23, p9003-9016, 14p

A kinetic model for air-steam reforming of bio-oil over Rh–Ni/γ-Al2O3 catalyst: Acetol as a model compound.

Authors: Ahmed, Tigabwa Y. Tanksale, Akshat Hoadley, Andrew F.A.

Source: International Journal of Hydrogen Energy. Sep2020, Vol. 45 Issue 46, p24300-24311. 12p.

Subjects: Steam reforming, Hydroxypropanone, Catalysts, Synthesis gas, Partial oxidation, Catalytic reforming, Heavy oil

Conversion of glycerol to hydroxyacetone over Cu and Ni catalysts.

Authors: Morales, Bárbara C. Miranda Quesada, Braulio Andrés Ortega

Source: Catalysis Today. Jul2021, Vol. 372, p115-125. 11p.

Subjects: Glycerin, Hydroxypropanone, Copper catalysts, Nickel catalysts, Catalysts, Atmospheric nitrogen

Catalytic conversion of acetol over HZSM-5 catalysts – influence of Si/Al ratio and introduction of mesoporosity.

Authors: Eschenbacher, Andreas Andersen, Jakob Afzali Jensen, Anker Degn

Source: Catalysis Today. Apr2021, Vol. 365, p301-309. 9p.

Subjects: Hydroxypropanone, Gas phase reactions, Silicon alloys, Mesoporous materials, Catalysts, Catalyst poisoning, Liquid hydrocarbons

Issue Information.

Source: International Journal of Quantum Chemistry. 10/15/2017, Vol. 117 Issue 20, pn/a-N.PAG. 3p.

Subjects: Hydroxypropanone, Carbohydrates, Aldoses, Ketoses, Reaction mechanisms (Chemistry)

Chemoselectivity in the Reaction of 2-Diazo-3-oxo-3-phenylpropanal with Aldehydes and Ketones.

Authors: Zhang, Jiantao Xu, Jiaxi

Source: Helvetica Chimica Acta. Sep2013, Vol. 96 Issue 9, p1733-1739. 7p.

Organocatalytic Regioselective Aldol Reaction of Hydroxyacetone with Aliphatic Aldehydes for the Synthesis of Linear Products.

Authors: Podlewski, Tomasz J. Turkiewicz, Marta W. Górecki, Marcin et al.

Source: Advanced Synthesis & Catalysis; 9/17/2024, Vol. 366 Issue 18, p3903-3912, 10p

Diols production from pyrolysis oil water‐soluble fraction.

Authors: Luo, Dan Xia, Shuqian Guo, Lixiao et al.

Source: Journal of Chemical Technology & Biotechnology; Sep2024, Vol. 99 Issue 9, p1955-1963, 9p

Formation of a β-(3-Chlorobenzoyloxy)-α-hydroxyketone from a TBS-Protected Chalcone upon Oxidation with m -Chloroperbenzoic Acid.

Authors: Berenguel-Gómez, Sonia Moreno-Gutiérrez, Irene Acien-García, Jenifer et al.

Source: Molbank. Jun2026, Vol. 2026 Issue 3, pM2175. 6p.