Changsheng Deng

Changsheng Deng

*This is an algorithmically generated author record based on publicly available information.

Current Organizations / Institutes

The organizations/institutes from the scholar's latest article


Changsheng Deng has a total of 79 co-authors. Here are the top co-authors by number of shared publications:

  • Yueming Yuan

    Science and Technology Park, Guangzhou University of Chinese Medicine, Guangzhou, China

    6 shared publications
  • Hongying Zhang

    Science and Technology Park, Guangzhou University of Chinese Medicine, Guangzhou, China

    5 shared publications
  • Jianping Song

    Artemisinin Research Center, Guangzhou University of Chinese Medicine, Guangzhou, China

    5 shared publications
  • Qin Xu

    Artemisinin Research Center, Guangzhou University of Chinese Medicine, Guangzhou, People’s Republic of China

    5 shared publications
  • Shaoqin Zheng

    Science and Technology Park, Guangzhou University of Chinese Medicine, Guangzhou, China

    5 shared publications
  • Guoming Li

    Artemisinin Research Center, Guangzhou University of Chinese Medicine, Guangzhou, China

    4 shared publications

Latest Publications

  • Open Access

    An integrated bioinformatics analysis reveals that targeted activation of IL7R may reduce influenza A virus infection risk in patients with depression

    by Zexing Chen, Yanling Xiang, Jinyi Zhu, Shixuan Li, Xinhua Wang, Changsheng Deng, Wanyi Huang

  • Open Access

    Transient malaria suppression after mass drug administration with artemisinin-piperaquine in a holoendemic, non-isolated region of Togo

    by Guoming Li, Jieying Zheng, Hongying Zhang, Yueming Yuan, Weisheng Yu, Nadia Julie, Ruimei Liu, Guangchao Wu, Wei Xie, Nansong Lin, et al.

  • Open Access

    The compound artemisinin-hydroxychloroquine ameliorates bleomycin-induced pulmonary fibrosis in rats by inhibiting TGF-β1/Smad2/3 signaling pathway

    by Zhaojia Wang, Min Liu, Ying Ai, Shaoqin Zheng, Yingyi Chen, Hujun Du, Shijia Yuan, Xueying Guo, Yueming Yuan, Guoming Li, et al.


  • Open Access

    Polymorphisms in the K13-Propeller Gene in Artemisinin-Resistant Plasmodium in Mice

    by Shaoqin Zheng, Yuan Liang, Zhaojia Wang, Min Liu, Yingyi Chen, Ying Ai, Wenfeng Guo, Guoming Li, Yueming Yuan, Zhiyong Xu, et al.

    Introduction: Artemisinin-based combination therapies (ACTs) act as first-line antimalarial drugs and play a crucial role in the successful control of falciparum malaria. However, the recent emergence of resistance of Plasmodium falciparum to ACTs in South East Asia is of particular concern. Hence, there is an urgent need to identify the genetic determinants of and understand the molecular mechanisms underpinning such resistance. Artemisinin resistance (AR) is primarily driven by the mutations in the P. falciparum K13 protein, which is widely recognized as the major molecular marker of AR. However, association of K13 mutations with in vivo AR has been ambiguous due to the absence of a tractable model. Methods: In this study, we have successfully produced artemisinin- and piperaquine-resistant P. berghei K173 following drug administrations. Prolonged parasite clearance and early recrudescence were found following daily exposure to high doses of artemisinin and piperaquine. We have also sequenced the DNA of artemisinin-resistant strains and piperaquine-resistant strains of P. berghei K173 to explore the relationship between PfK13 and AR. Results: The resistance index of P. berghei K173 reached 12.4 after 30 artemisinin-resistant generations, but AR declined gradually after 30 generations. On the 50th generation, the resistance index of artemisinin-resistant strains was only 5.0 compared with the severe drug resistance of piperaquine-resistant strains (I90=148.8). DNA sequencing of artemisinin-resistant strains showed that there were 9 meaningful mutations at P. berghei K13-propeller domain, but the above mutations did not include common clinical point mutations. Conclusion: Our data show that artemisinin is less susceptible to severe resistance compared with other antimalarial drugs. In addition, mutation on P. berghei K13 has a multi-drug-resistant phenotype and may be used as a biomarker to monitor its resistance. More studies need to be conducted on the new mutations detected so as to understand their association, if any, with ACT resistance.


  • Open Access

    Artemisinin-piperaquine versus artemether-lumefantrine for treatment of uncomplicated Plasmodium falciparum malaria in Grande Comore island: an open-label, non-randomised controlled trial

    by Guoming Li, Yueming Yuan, Shaoqin Zheng, Chenguang Lu, Mingqiang Li, Ruixiang Tan, Hongying Zhang, Rahamatou Silai, Ruimei Liu, Kamal Said Abdallah, et al.


  • Open Access

    The Effect of Artemisinin-Based Drugs vs Non-artemisinin-based Drugs on Gametophyte Carrying in the Body After the Treatment of Uncomplicated Falciparum Malaria: A Systematic Review and Meta-analysis

    by Yuanyuan Zou, Nadia Julie, Shiyuan Guo, Yexiao Tang, Hongying Zhang, Zhiyong Xu, Wanting Wu, Yueming Yuan, Zhibin Wu, Wenfeng Guo, et al.

    The WHO recommends Artemisinin-based combination therapy (ACTs) as the first-line treatment for malaria. This meta-analysis aims to analyze the effects of artemisinin and its derivatives as well as non-artemisinin drugs on the gametophytes in the host during the treatment of falciparum malaria. Fourteen studies were included in this analysis, and the artemisinin combination drugs involved were: artemether-lumefantrine (AL), artemisinin (AST), artemether-benflumetol (AB), dihydroartemisinin-piperaquine + trimethoprim + primaquine (CV8), amodiaquine + sulfadoxine-pyrimethamine (ASP), pyronaridine-phosphate + dihydroartemisinin (PP-DHA), dihydroartemisinin (DHA), and mefloquine + artesunate (MA), with 1702 patients. The control intervention measures involved the following: sulfadoxine-pyrimethamine (SP), mefloquine (MQ), atovaquone-proguanil (AT-PG), chloroquine + sulfadoxine-pyrimethamine (C-SP), quinine (Q), pyronaridine-phosphate (PP), pyronaridine (PN), and mefloquine + primaquine (MP), with 833 patients. The effect of ACTs was more obvious (OR = 0.37, 95%CI: 0.22–0.62, p < 0.05). In the control group of second malaria attacks, the difference between the two groups was not statistically significant (RD = 1.16, 95%CI: 0.81–1.66, p < 0.05); there was no significant difference in treatment failure during follow-up (RD = -0.01, 95%CI: 0.04–0.03, p < 0.05). There were also very few serious adverse events in both groups. ACTs showed good therapeutic effects in preventing gametocythemia but did not control the recrudescence rate and overall cure, which indicated the effectiveness of the combination of antimalarial drugs. Further research is required to explore which compatibility method is most conducive to the development of clinical malaria control.


  • Open Access

    Mass Drug Administration With Artemisinin-Piperaquine for the Elimination of Residual Foci of Malaria in São Tomé Island

    by Mingqiang Li, Fei Tuo, Ruixiang Tan, Hongying Zhang, Shaoqin Zheng, Qi Wang, Qin Xu, Xinbing Yu, Fangli Lu, Zhibing Wu, et al.

    Background: Mass drug administration with artemisinin-piperaquine (AP-MDA) is being considered for elimination of residual foci of malaria in Democratic Republic of São Tomé and Principe.Methods: Three monthly rounds of AP-MDA were implemented from July to October 2019. Four zones were selected. A and B were selected as a study site and a control site, respectively. C and D were located within 1.5 and 1.5 km away from the study site, respectively. Parasite prevalence, malaria incidence, and the proportion of the Plasmodium falciparum malaria cases were evaluated.Results: After 3 monthly rounds of AP-MDA, the parasite prevalence and the gametocyte carriage rate of P. falciparum in zone A decreased from 28.29(‰) to 0 and 4.99(‰) to 0, respectively. Compared to zone B, the relative risk for the population with Plasmodium falciparum malaria in zone A was lower (RR = 0.458, 95% CI: 0.146–1.437). Malaria incidence fell from 290.49(‰) (the same period of the previous year) to 15.27(‰) (from the 29th week in 2019 to the 14th week in 2020), a decrease of 94.74% in zone A, and from 31.74 to 5.46(‰), a decline of 82.80% in zone B. Compared to the data of the same period the previous year, the cumulative number of P. falciparum malaria cases were lower, decreasing from 165 to 10 in zone A and from 17 to 4 in zone B. The proportion of the P. falciparum malaria cases on the total malaria cases of the country decreased of 90.16% in zone A and 71.34% in zone C.Conclusion: AP-MDA greatly curbed malaria transmission by reducing malaria incidence in the study site and simultaneously creating a knock-on effect of malaria control within 1.5 km of the study site and within the limited time interval of 38 weeks.


  • Open Access

    Safety and efficacy of artemisinin-piperaquine for treatment of COVID-19: an open-label, non-randomised and controlled trial

    by Guoming Li, Mei Yuan, Haihong Li, Changsheng Deng, Qi Wang, Yexiao Tang, Hongying Zhang, Weisheng Yu, Qin Xu, Yuanyuan Zou, et al.


  • Open Access

    Surveillance of the Efficacy of Artemisinin–Piperaquine in the Treatment of Uncomplicated Plasmodium falciparum Malaria Among Children Under 5 Years of Age in Est-Mono District, Togo, in 2017

    by Qi Wang, Zhenyan Zhang, Weisheng Yu, Chenguang Lu, Guoming Li, Ziyi Pan, Hongying Zhang, Wanting Wu, Tinah Atcha Oubou, Yueming Yuan, et al.

    Background: Malaria is a major public health concern in Togo. The Est-Mono district of Togo has a population of 150,000. Accordingly, the Guangzhou University of Chinese Medicine, China and the Ministry of Health and Social Security, Togo launched a nationwide Mass Drug Administration Project with artemisinin–piperaquine (AP) in Est-Mono. Before launching this project, the sensitivity test of AP was conducted in a general clinic in Elawagnon, Togo. With this background, we evaluated the efficacy and safety of AP for the treatment of uncomplicated falciparum malaria in children under the age of 5 years. Methods: Children aged 6–59 months with uncomplicated falciparum malaria were enrolled in this study. The selected patients were treated with a combination regime of artemisinin–piperaquine. The patients were followed up for 28 days, during which signs of the following were observed for: the duration for fever clearance, parasitemia density, gametophyte generation, cure rate, hemoglobin level, and merozoite surface protein-2 (msp-2) polymorphism. The primary end point was a 28-day cure rate and polymerase chain reaction (PCR)-corrected reinfection and recrudescence. This research followed the standardized World Health Organization (WHO) protocol for the assessment of the efficacy of antimalarial drugs. Results: A total of 91 children with uncomplicated falciparum malaria were enrolled in this study. Adequate clinical and parasitological responses (ACPRs) before and after PCR-correction were 66 (73%) and 90 (99%), respectively. The average hemoglobin level in the patient increased by 0.05 g/dl per day (p < 0.0001) after the treatment. The gametophyte generation did not decline at the beginning of the treatment; however, after 14 days, it declined (day 21: p < 0.05; day 28: p < 0.01). In the msp-2 polymorphism study of 24 children treated for parasite infection, one case of msp-2 with 3D7 haplotype and FC27 haplotype was noted, indicating its recrudescence, with a frequency of 4%. The remaining 23 cases could have been of reinfection, with a frequency of 96%. No serious adverse reactions occurred, and AP was well-tolerated by all patients. Conclusion: Artemisinin–piperaquine was found to be an effective combination for treating uncomplicated falciparum malaria in children aged Plasmodium falciparum remains sensitive to artemisinin–piperaquine, necessitating its trial in this region. Clinical Trial Registration: Trial registration: ECGPHCM No. B2017-054-01; MHSST AVIS N° 0001/2016/CBRS du 07 janvier 2016. Registered 17 March 2014, http://www.chinadrugtrials.org.cn/eap/main.