Weize Wu

Dr. Weize Wu

State Key Laboratory of Chemical Resource Engineering, College of Chemical Engineering, Beijing University of Chemical Technology, Beijing 100029, China
orcid

Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 November 2012 in Green Chemistry
Verified
Journal Article
Closed access
PDF file
WGWujie Guo
Wujie Guo
YHYucui Hou
Yucui Hou
Weize WuWeize Wu
Weize Wu
SRShuhang Ren
Shuhang Ren
STShidong Tian
Shidong Tian
KMKenneth N. Marsh
Kenneth N. Marsh
A variety of quaternary ammonium salts have been used to efficiently separate phenols from model oils, which avoids the use of mineral alkali and acids that produce phenol-containing waste water. It was found that some quaternary ammonium salts showed high phenol-removal efficiencies, which could reach as high as 99.9%. The separation mechanism was also discussed.

15 March 2013 in Journal of Chemical & Engineering Data
Verified
Journal Article
Closed access
WGWujie Guo
Wujie Guo
YHYucui Hou
Yucui Hou
SRShuhang Ren
Shuhang Ren
STShidong Tian
Shidong Tian
Weize WuWeize Wu
Weize Wu

5 July 2012 in Green Chemistry
Verified
Journal Article
Closed access
PDF file
KPKun Pang
Kun Pang
YHYucui Hou
Yucui Hou
Weize WuWeize Wu
Weize Wu
WGWujie Guo
Wujie Guo
WPWei Peng
Wei Peng
KMKenneth N. Marsh
Kenneth N. Marsh
Ammonium salts have been used to efficiently separate phenols from oils (where hexane, toluene and p-xylene were used as model oils) by forming a deep eutectic solvent, which is a nonaqueous process and avoids the use of mineral alkalis and acids that produces phenol containing waste water.

1 February 2017 in Journal of Hazardous Materials
Verified
Journal Article
Closed access
KZKai Zhang
Kai Zhang
SRShuhang Ren
Shuhang Ren
YHYucui Hou
Yucui Hou
Weize WuWeize Wu
Weize Wu

11 February 2014 in Green Chemistry
Verified
Journal Article
Closed access
PDF file
WWWenhua Wang
Wenhua Wang
MNMuge Niu
Muge Niu
YHYucui Hou
Yucui Hou
Weize WuWeize Wu
Weize Wu
ZLZhenyu Liu
Zhenyu Liu
KMKenneth N. Marsh
Kenneth N. Marsh
Here we report a catalytic process for the efficient production of formic acid (FA) from common carbohydrates via VO2 + formed by dissolving sodium metavanadate in acidic water. The polysaccharides undergo a hydrolysis reaction and an immediate oxidation reaction successively to produce FA in the same reaction system. The hydrolysis reaction decomposes the polymerized structures to produce monosaccharides, which are readily oxidized to FA under catalysis of VO2 +. Typically, formic acid mole yields are 64.9% from cellulose and 63.5% from xylan (hemicellulose). The separation of FA from the catalytic system and recycling of the catalyst are demonstrated.

8 June 2018 in Energy & Fuels
Verified
Journal Article
Closed access
KZKai Zhang
Kai Zhang
YHYucui Hou
Yucui Hou
YWYiming Wang
Yiming Wang
KWKun Wang
Kun Wang
Shuhang RenShuhang Ren
Shuhang Ren
Weize WuWeize Wu
Weize Wu