Milen I. Georgiev

Prof. Dr. Milen I. Georgiev

Laboratory of Metabolomics, Institute of Microbiology, Bulgarian Academy of Sciences, 139 Ruski Blvd., 4000 Plovdiv, Bulgaria
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orcid

Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

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

Representative Publications

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1 November 2014 in Biotechnology Advances
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Journal Article
Closed access
KAKalina Alipieva
Kalina Alipieva
LKLiudmila Korkina
Liudmila Korkina
IOIlkay Erdogan Orhan
Ilkay Erdogan Orhan
Milen I. GeorgievMilen I. Georgiev
Milen I. Georgiev

1 November 2014 in Biotechnology Advances
Verified
Journal Article
Closed access
Jianbo XiaoJianbo Xiao
Jianbo Xiao
TMTamar S. Muzashvili
Tamar S. Muzashvili
Milen I. GeorgievMilen I. Georgiev
Milen I. Georgiev

1 April 2007 in Applied Microbiology and Biotechnology
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Journal Article
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Milen I. GeorgievMilen I. Georgiev
Milen I. Georgiev
Atanas PavlovAtanas Pavlov
Atanas Pavlov
TBThomas Bley
Thomas Bley

11 January 2023 in Biomedicine & Pharmacotherapy
Verified
Journal Article
Open access
MSMartina S. Savova
Martina S. Savova
LMLiliya V. Mihaylova
Liliya V. Mihaylova
DTDaniel Tews
Daniel Tews
MWMartin Wabitsch
Martin Wabitsch
Milen I. GeorgievMilen I. Georgiev
Milen I. Georgiev
Obesity is a disorder with an increasing prevalence, which impairs the life quality of patients and intensifies societal health care costs. The development of safe and innovative prevention strategies and therapeutic approaches is thus of great importance. The complex pathophysiology of obesity involves multiple signaling pathways that influence energy metabolism in different tissues. The phosphatidylinositol 3-kinases (PI3K)/protein kinase B (AKT) pathway is critical for the metabolic homeostasis and its function in insulin-sensitive tissues is described in the context of health, obesity and obesity-related complications. The PI3K family participates in the regulation of diverse physiological processes including but not limited to cell growth, survival, differentiation, autophagy, chemotaxis, and metabolism depending on the cellular context. AKT is downstream of PI3K in the insulin signaling pathway, and promotes multiple cellular processes by targeting a plethora of regulatory proteins that control glucose and lipid metabolism. Natural products are essential for prevention and treatment of many human diseases, including obesity. Anti-obesity natural compounds effect multiple pathophysiological mechanisms involved in obesity development. Numerous recent preclinical studies reveal the advances in using plant secondary metabolites to target the PI3K/AKT signaling pathway for obesity management. In this paper the druggability of PI3K as a target for compounds with anti-obesity potential is evaluated. Perspectives on the strategies and limitations for clinical implementation of obesity management using natural compounds modulating the PI3K/AKT pathway are suggested.

1 January 2021 in Food Chemistry
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Journal Article
Closed access
Md. Nurul HudaMd. Nurul Huda
Md. Nurul Huda
SLShuai Lu
Shuai Lu
TJTanzim Jahan
Tanzim Jahan
MDMengqi Ding
Mengqi Ding
RJRintu Jha
Rintu Jha
MZMeiliang Zhou
Meiliang Zhou

28 June 2017 in Critical Reviews in Food Science and Nutrition
Verified
Journal Article
Open access
LCLei Chen
Lei Chen
HTHui Teng
Hui Teng
ZXZhenglu Xie
Zhenglu Xie
HCHui Cao
Hui Cao
Wai San CheangWai San Cheang
Wai San Cheang
Jianbo XiaoJianbo Xiao
Jianbo Xiao
Over the past two decades, extensive studies have revealed that inflammation represents a major risk factor for various human diseases. Chronic inflammatory responses predispose to pathological progression of chronic illnesses featured with penetration of inflammatory cells, dysregulation of cellular signaling, excessive generation of cytokines, and loss of barrier function. Hence, the suppression of inflammation has the potential to delay, prevent, and to treat chronic diseases. Flavonoids, which are widely distributed in humans daily diet, such as vegetables, fruits, tea and cocoa, among others, are considered as bioactive compounds with anti-inflammatory potential. Modification of flavonoids including hydroxylation, o-methylation, and glycosylation, can alter their metabolic features and affect mechanisms of inflammation. Structure–activity relationships among naturally occurred flavonoids hence provide us with a preliminary insight into their anti-inflammatory potential, not only attributing to the antioxidant capacity, but also to modulate inflammatory mediators. The present review summarizes current knowledge and underlies mechanisms of anti-inflammatory activities of dietary flavonoids and their influences involved in the development of various inflammatory-related chronic diseases. In addition, the established structure–activity relationships of phenolic compounds in this review may give an insight for the screening of new anti-inflammatory agents from dietary materials.