Fuxing Shu

Dr. Fuxing Shu


Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

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

Representative Publications

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Verified
Journal Article
Open access
PDF file
SSSurendra Sarsaiya
Surendra Sarsaiya
AJArchana Jain
Archana Jain
QJQi Jia
Qi Jia
XFXiaokuan Fan
Xiaokuan Fan
FSFuxing Shu
Fuxing Shu
JCJishuang Chen
Jishuang Chen
Dendrobium are tropical orchid plants that host diverse endophytic fungi. The role of these fungi is not currently well understood in Dendrobium plants. We morphologically and molecularly identified these fungal endophytes, and created an efficient system for evaluating the pathogenicity and symptoms of endophytic fungi on Dendrobium nobile and Dendrobium officinale though in vitro co-culturing. ReThe colony morphological traits of Dendrobium myco-endophytes (DMEs) were recorded for their identification. Molecular identification revealed the presence of Colletotrichum tropicicola, Fusarium keratoplasticum, Fusarium oxysporum, Fusarium solani, and Trichoderma longibrachiatum. The pathogenicity results revealed that T. longibrachiatum produced the least pathogenic effects against D. nobile protocorms. In seedlings, T. longibrachiatum showed the least pathogenic effects against D. officinale seedlings after seven days. C. tropicicola produced highly pathogenic effects against both Dendrobium seedlings. The results of histological examination of infected tissues revealed that F. keratoplasticum and T. longibrachiatum fulfill Koch’s postulates for the existence of endophytes inside the living tissues. The DMEs are cross-transmitted inside the host plant cells, playing an important role in plant host development, resistance, and alkaloids stimulation.

12 September 2023 in Frontiers in Plant Science
Verified
Journal Article
Open access
DWDongdong Wang
Dongdong Wang
SSSurendra Sarsaiya
Surendra Sarsaiya
XQXu Qian
Xu Qian
LJLeilei Jin
Leilei Jin
FSFuxing Shu
Fuxing Shu
JCJi-Shuang Chen
Ji-Shuang Chen
Pinellia ternata (Thunb.) Breit. (Araceae), a significant medicinal plant, has been used to treat various diseases for centuries. Terahertz radiation (THZ) is located between microwaves and infrared rays on the electromagnetic spectrum. THZ possesses low single-photon energy and a spectral fingerprint, but its effects on plant growth have not yet been investigated. The study’s primary objective was to examine the transcriptome and metabolome databases of the SY line to provide a new perspective for identifying genes associated with resistance and growth promotion and comprehending the underlying molecular mechanism. Variations in the biological characteristics of P. ternata grown under control and experimental conditions were analyzed to determine the effect of THZ. Compared with the control group, phenotypic variables such as leaf length, petiole length, number of leaves, leaf petiole diameter, and proliferation coefficient exhibited significant differences. P. ternata response to THZ was analyzed regarding the effects of various coercions on root exudation. The experimental group contained considerably more sugar alcohol than the control group. The transcriptome analysis revealed 1,695 differentially expressed genes (DEGs), including 509 upregulated and 1,186 downregulated genes. In the KEGG-enriched plant hormone signaling pathway, there were 19 differentially expressed genes, 13 of which were downregulated and six of which were upregulated. In the metabolomic analysis, approximately 416 metabolites were uncovered. There were 112 DEMs that were downregulated, whereas 148 were upregulated. The P. ternata leaves displayed significant differences in phytohormone metabolites, specifically in brassinolide (BR) and abscisic acid (ABA). The rise in BR triggers alterations in internal plant hormones, resulting in faster growth and development of P. ternata. Our findings demonstrated a link between THZ and several metabolic pathway processes, which will enhance our understanding of P. ternata mechanisms.

1 April 2023 in Plant Disease
Verified
Journal Article
Closed access
MHMinglei Huang
Minglei Huang
QWQiong Wu
Qiong Wu
XWXing Wang
Xing Wang
KTKuberan Thangaraj
Kuberan Thangaraj
FSFuxing Shu
Fuxing Shu
JCJi-Shuang Chen
Ji-Shuang Chen
Pinellia ternata (Thumb.) has been used for over 1000 years as a traditional Chinese herbal medicine (Ying et al. 2007) and is widely cultivated in Guizhou Province, China. It is cultivated over an...

1 June 2024 in Plant Disease
Verified
Journal Article
Closed access
SSSurendra Sarsaiya
Surendra Sarsaiya
AJArchana Jain
Archana Jain
QJQ. Jia
Q. Jia
FSFuxing Shu
Fuxing Shu
GQGong Qi-Hai
Gong Qi-Hai
JCJishuang Chen
Jishuang Chen
Dendrobium nobile is the largest species of the Orchidaceae family and produces dendrobine, a compound with medicinal properties (Sarsaiya et al., 2020a; Sarsaiya et al., 2024; Qian et al., 2024). ...

22 December 2025 in Food & Medicine Homology
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Journal Article
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CWCheng-Yuan Wang
Cheng-Yuan Wang
PFPing Fan
Ping Fan
NYNing-Xian Yang
Ning-Xian Yang
FSFuxing Shu
Fuxing Shu
DWDao-Ping Wang
Dao-Ping Wang
HZHong-Guang Zhong
Hong-Guang Zhong
Active polysaccharides from food-medicine homologous sources are pivotal for the modernization of Food-Medicine Homologous substances. However, their clinical translation and efficacy exertion are hindered by three critical bottlenecks: inadequate targeting ability (prone to dispersion in non-target tissues, thus limiting efficient accumulation at lesion sites), low bioavailability (some polysaccharides with large molecular weights are susceptible to glycosidase degradation or unable to penetrate physiological barriers), and poor stability (vulnerable to pH fluctuations and enzymatic hydrolysis in the gastrointestinal tract). This paper proposes a "carrier adaptation-targeted modification-environmental response" synergistic strategy. Carrier adaptation provides a stable transportation foundation for polysaccharides, targeted modification achieves precise positioning, and environmental response ensures on-demand release at target sites. The synergistic effect of the three constructs a precise delivery system for active polysaccharides. This strategy not only addresses the delivery dilemmas of these polysaccharides but also enhances their targeting precision, bioavailability, and stability, advancing functional foods toward precision nutrition and aiding chronic disease prevention.