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Dive into the research topics where Xiaochuan Yang is active.

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Featured researches published by Xiaochuan Yang.


Bioorganic & Medicinal Chemistry Letters | 2013

Synthesis, antimalarial activity and cytotoxic potential of new monocarbonyl analogues of curcumin

Sunny Manohar; Shabana I. Khan; Shamseer Kulangara Kandi; K. Kranthi Raj; Guojing Sun; Xiaochuan Yang; Angie Dayan Calderon Molina; Nanting Ni; Binghe Wang; Diwan S. Rawat

A series of novel monocarbonyl analogues of curcumin have been designed, synthesized and tested for their activity against Molt4, HeLa, PC3, DU145 and KB cancer cell lines. Six of the analogues showed potent cytotoxicity towards these cell lines with IC(50) values below 1 μM, which is better than doxorubicin, a US FDA approved drug. Several analogues were also found to be active against both CQ-resistant (W2 clone) and CQ-sensitive (D6) strains of Plasmodium falciparum in an in-vitro antimalarial screening. This level of activity warrants further investigation of the compounds for development as anticancer and antimalarial agents.


Chemical Communications | 2010

Boronic acid-modified DNA that changes fluorescent properties upon carbohydrate binding

Xiaochuan Yang; Chaofeng Dai; Angie Dayan Calderon Molina; Binghe Wang

A long wavelength boronic acid-modified TTP (NB-TTP) has been synthesized and enzymatically incorporated into DNA. Such DNA shows intrinsic fluorescent changes upon carbohydrate addition.


Antimicrobial Agents and Chemotherapy | 2010

Chemical Validation of Phosphodiesterase C as a Chemotherapeutic Target in Trypanosoma cruzi, the Etiological Agent of Chagas' Disease

Sharon King-Keller; Minyong Li; Alyssa Smith; Shilong Zheng; Gurpreet Kaur; Xiaochuan Yang; Binghe Wang; Roberto Docampo

ABSTRACT Trypanosoma cruzi phosphodiesterase (PDE) C (TcrPDEC), a novel and rather unusual PDE in which, unlike all other class I PDEs, the catalytic domain is localized in the middle of the polypeptide chain, is able to hydrolyze cyclic GMP (cGMP), although it prefers cyclic AMP (cAMP), and has a FYVE-type domain in its N-terminal region (S. Kunz et al., FEBS J. 272:6412-6422, 2005). TcrPDEC shows homology to the mammalian PDE4 family members. PDE4 inhibitors are currently under development for the treatment of inflammatory diseases, such as asthma, chronic pulmonary diseases, and psoriasis, and for treating depression and serving as cognitive enhancers. We therefore tested a number of compounds originally synthesized as potential PDE4 inhibitors on T. cruzi amastigote growth, and we obtained several useful hits. We then conducted homology modeling of T. cruzi PDEC and identified other compounds as potential inhibitors through virtual screening. Testing of these compounds against amastigote growth and recombinant TcrPDEC activity resulted in several potent inhibitors. The most-potent inhibitors were found to increase the cellular concentration of cAMP. Preincubation of cells in the presence of one of these compounds stimulated volume recovery after hyposmotic stress, in agreement with their TcrPDEC inhibitory activity in vitro, providing chemical validation of this target. The compounds found could be useful tools in the study of osmoregulation in T. cruzi. In addition, their further optimization could result in the development of new drugs against Chagas disease and other trypanosomiases.


Journal of Medicinal Chemistry | 2008

Design, synthesis, and structure-activity relationship, molecular modeling, and NMR studies of a series of phenyl alkyl ketones as highly potent and selective phosphodiesterase-4 inhibitors.

Shilong Zheng; Gurpreet Kaur; Huanchen Wang; Minyong Li; Megan Macnaughtan; Xiaochuan Yang; Suazette Reid; James H. Prestegard; Binghe Wang; Hengming Ke

Phosphodiesterase 4 catalyzes the hydrolysis of cyclic AMP and is a target for the development of anti-inflammatory agents. We have designed and synthesized a series of phenyl alkyl ketones as PDE4 inhibitors. Among them, 13 compounds were identified as having submicromolar IC(50) values. The most potent compounds have IC(50) values of in the mid- to low-nanomolar range. Compound 5v also showed preference for PDE4 with selectivity of >2000-fold over PDE7, PDE9, PDE2, and PDE5. Docking of 5v, 5zf, and 5za into the binding pocket of the PDE4 catalytic domain revealed a similar binding profile to PDE4 with rolipram except that the fluorine atoms of the difluoromethyl groups of 5v, 5za, and 5zf are within a reasonable range for hydrogen bond formation with the amide hydrogen of Thr 333 and the long alkyl chain bears additional van der Waals interactions with His 160, Asp 318, and Tyr 159.


ChemMedChem | 2011

Novel rhein analogues as potential anticancer agents.

Xiaochuan Yang; Guojing Sun; Chunhao Yang; Binghe Wang

Two series of rhein analogues were synthesized with modification at the 3‐position. Their cytotoxicities were evaluated using an MTT assay. Among all the compounds synthesized, one compound showed the best potency, with an IC50 value of 2.7u2005μM against the HeLa cell line and 0.6u2005μM against the MOLT4 cell line.


Archive | 2013

Anthraquinone Analogs and Methods of Making and Using Thereof

Binghe Wang; Chaofeng Dai; Alexander Draganov; Xiaochuan Yang; Guojing Sun; Chunhao Yang; Weixuan Chen; Nanting Ni; Muxiang Zhou; Lubing Gu


Artificial Receptors for Chemical Sensors | 2010

Boronic Acid‐Based Receptors and Chemosensors

Xiaochuan Yang; Yunfeng Cheng; Shan Jin; Binghe Wang


Archive | 2013

CURCUMIN ANALOGS AND METHODS OF MAKING AND USING THEREOF

Diwan S. Rawat; Binghe Wang; Nitin Kumar; Sunny Manohar; Xiaochuan Yang; Guojing Sun; Nanting Ni


Chemosensors: Principles, Strategies, and Applications | 2011

Covalent Interactions in Chemosensor Design

Yunfeng Cheng; Xiaochuan Yang; Binghe Wang


Archive | 2016

Anthraquinone analog and method of making and using thereof

ワン ビンヘ; Binghe Wang; ダイ チャオフェン; Chaofeng Dai; ドラガノフ アレクサンダー; Draganov Alexander; ヤン シャオチュアン; Xiaochuan Yang; サン グオジン; Guojing Sun; チュンハオ ヤン; Chunhao Yang; チェン ウェイシュアン; Weixuan Chen; ニ ナンティン; Nanting Ni; ゾウ ムシャン; Muxiang Zhou; グ ルビン; Lubing Gu

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Binghe Wang

Georgia State University

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Guojing Sun

Georgia State University

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Nanting Ni

Georgia State University

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Chaofeng Dai

Georgia State University

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Chunhao Yang

Chinese Academy of Sciences

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Muxiang Zhou

Georgia State University

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Weixuan Chen

Georgia State University

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Yunfeng Cheng

Georgia State University

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