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OpenAlex Citation Counts

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OpenAlex is a bibliographic catalogue of scientific papers, authors and institutions accessible in open access mode, named after the Library of Alexandria. It's citation coverage is excellent and I hope you will find utility in this listing of citing articles!

If you click the article title, you'll navigate to the article, as listed in CrossRef. If you click the Open Access links, you'll navigate to the "best Open Access location". Clicking the citation count will open this listing for that article. Lastly at the bottom of the page, you'll find basic pagination options.

Requested Article:

Uric acid and inflammation in kidney disease
Su Woong Jung, Su-Mi Kim, Yang‐Gyun Kim, et al.
AJP Renal Physiology (2020) Vol. 318, Iss. 6, pp. F1327-F1340
Open Access | Times Cited: 120

Showing 1-25 of 120 citing articles:

The gut microbiota as a target to control hyperuricemia pathogenesis: Potential mechanisms and therapeutic strategies
Jing Wang, Yong Chen, Hao Zhong, et al.
Critical Reviews in Food Science and Nutrition (2021) Vol. 62, Iss. 14, pp. 3979-3989
Closed Access | Times Cited: 203
Hyperuricemia and its related diseases: mechanisms and advances in therapy
Lin Du, Zong Yao, H. Li, et al.
Signal Transduction and Targeted Therapy (2024) Vol. 9, Iss. 1
Open Access | Times Cited: 75
Flexible Wearable Plasmonic Paper-Based Microfluidics with Expandable Channel and Adjustable Flow Rate for Portable Surface-Enhanced Raman Scattering Sweat Sensing
Yang Li, Yanxian Guo, Haolin Chen, et al.
ACS Photonics (2024) Vol. 11, Iss. 2, pp. 613-625
Closed Access | Times Cited: 17
A silver nanowires@Prussian blue composite aerogel-based wearable sensor for noninvasive and dynamic monitoring of sweat uric acid
Danfeng Jiang, Yajie Zhu, Zhe Sun, et al.
Chemical Engineering Journal (2024) Vol. 486, pp. 150220-150220
Closed Access | Times Cited: 16
Recent advances in fructose intake and risk of hyperuricemia
Congwang Zhang, Lijun Li, Yipeng Zhang, et al.
Biomedicine & Pharmacotherapy (2020) Vol. 131, pp. 110795-110795
Open Access | Times Cited: 95
The Role of Epithelial Damage in the Pulmonary Immune Response
Rachel A. Burgoyne, Andrew J. Fisher, Lee A. Borthwick
Cells (2021) Vol. 10, Iss. 10, pp. 2763-2763
Open Access | Times Cited: 90
Apigenin ameliorates hyperuricemic nephropathy by inhibiting URAT1 and GLUT9 and relieving renal fibrosis via the Wnt/β-catenin pathway
Yongmei Li, Zean Zhao, Jian Luo, et al.
Phytomedicine (2021) Vol. 87, pp. 153585-153585
Closed Access | Times Cited: 65
Hydrophilic metal-organic frameworks integrated uricase for wearable detection of sweat uric acid
Jingyu Xiao, Yong Luo, Lei Su, et al.
Analytica Chimica Acta (2022) Vol. 1208, pp. 339843-339843
Closed Access | Times Cited: 57
Association of metabolic syndrome and chronic kidney disease
Florian G. Scurt, Maximilian J. Ganz, Carolin Herzog, et al.
Obesity Reviews (2023) Vol. 25, Iss. 1
Open Access | Times Cited: 36
The dysregulation of immune cells induced by uric acid: mechanisms of inflammation associated with hyperuricemia and its complications
Delun Li, Siyu Yuan, Yiyao Deng, et al.
Frontiers in Immunology (2023) Vol. 14
Open Access | Times Cited: 35
Piperine Improves Hyperuricemic Nephropathy by Inhibiting URAT1/GLUT9 and the AKT-mTOR Pathway
Lu Li, Kunlu Zhao, Jian Luo, et al.
Journal of Agricultural and Food Chemistry (2024) Vol. 72, Iss. 12, pp. 6565-6574
Closed Access | Times Cited: 10
Gut microbiota dysbiosis in hyperuricaemia promotes renal injury through the activation of NLRP3 inflammasome
Xinghong Zhou, Shuai Ji, Liqian Chen, et al.
Microbiome (2024) Vol. 12, Iss. 1
Open Access | Times Cited: 9
Association of platelet to high-density lipoprotein cholesterol ratio with hyperuricemia
Laisha Yan, Xiao Hu, Shanshan Wu, et al.
Scientific Reports (2024) Vol. 14, Iss. 1
Open Access | Times Cited: 8
Advances in kidney disease: pathogenesis and therapeutic targets
Vincent Boima, Alex Baafi Agyekum, Khushali Ganatra, et al.
Frontiers in Medicine (2025) Vol. 12
Open Access | Times Cited: 1
Why Does Hyperuricemia Not Necessarily Induce Gout?
Wei‐Zheng Zhang
Biomolecules (2021) Vol. 11, Iss. 2, pp. 280-280
Open Access | Times Cited: 52
Anti-Inflammatory and Anti-Hyperuricemic Effects of Chrysin on a High Fructose Corn Syrup-Induced Hyperuricemia Rat Model via the Amelioration of Urate Transporters and Inhibition of NLRP3 Inflammasome Signaling Pathway
Yi-Hsien Chang, Yi-Fen Chiang, Y-H. Chen, et al.
Antioxidants (2021) Vol. 10, Iss. 4, pp. 564-564
Open Access | Times Cited: 50
Simiao San alleviates hyperuricemia and kidney inflammation by inhibiting NLRP3 inflammasome and JAK2/STAT3 signaling in hyperuricemia mice
Yueyi Zhang, Shan Wang, Xuan Dai, et al.
Journal of Ethnopharmacology (2023) Vol. 312, pp. 116530-116530
Closed Access | Times Cited: 18
The molecular mechanisms underlying anti‐inflammatory effects of galangin in different diseases
Emad H. M. Hassanein, Mostafa S. Abd El‐Maksoud, Islam M. Ibrahim, et al.
Phytotherapy Research (2023) Vol. 37, Iss. 7, pp. 3161-3181
Closed Access | Times Cited: 17
The dysfunction in intestinal microorganisms and enzyme activity as significant contributors to diarrhea with kidney-yang deficiency syndrome
Mengsi Zhou, Xiaoya Li, Xuehong Wang, et al.
Frontiers in Microbiology (2024) Vol. 14
Open Access | Times Cited: 7
Signaling pathways in uric acid homeostasis and gout: From pathogenesis to therapeutic interventions
Shuangling Yang, Haimei Liu, Xian-Ming Fang, et al.
International Immunopharmacology (2024) Vol. 132, pp. 111932-111932
Open Access | Times Cited: 6
New insights into anti-hyperuricemic effects of novel peptides from Antarctic Krill (Euphausia superba) by Q-Exactive Orbitrap MS-based non-targeted metabolomics
Hao Li, Yulian Ding, Yan Fan, et al.
Food Bioscience (2024) Vol. 59, pp. 104063-104063
Closed Access | Times Cited: 6
Pharmacological inhibition of fatty acid-binding protein 4 alleviated kidney inflammation and fibrosis in hyperuricemic nephropathy
Min Shi, Fan Guo, Dan Liao, et al.
European Journal of Pharmacology (2020) Vol. 887, pp. 173570-173570
Closed Access | Times Cited: 40
Effect of Berberine on Hyperuricemia and Kidney Injury: A Network Pharmacology Analysis and Experimental Validation in a Mouse Model
Qiaoping Li, Ziwei Huang, Defu Liu, et al.
Drug Design Development and Therapy (2021) Vol. Volume 15, pp. 3241-3254
Open Access | Times Cited: 34
Apigenin Ameliorates Hyperuricemia and Renal Injury through Regulation of Uric Acid Metabolism and JAK2/STAT3 Signaling Pathway
Tianyuan Liu, Gao Hui-min, Yueyi Zhang, et al.
Pharmaceuticals (2022) Vol. 15, Iss. 11, pp. 1442-1442
Open Access | Times Cited: 26
Update on Uric Acid and the Kidney
Giana Kristy Ramos, David S. Goldfarb
Current Rheumatology Reports (2022) Vol. 24, Iss. 5, pp. 132-138
Closed Access | Times Cited: 25
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