JITENDRA KUMAR SUNDARAY

Dr. JITENDRA KUMAR SUNDARAY

ICAR - CENTRAL INSTITUTE OF FRESHWATER AQUACULTURE
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Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

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

Representative Publications

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1 January 2014 in Aquaculture
Verified
Journal Article
Closed access
PAP.S. Shyne Anand
P.S. Shyne Anand
MKM.P.S. Kohli
M.P.S. Kohli
SKSujeet Kumar
Sujeet Kumar
JITENDRA KUMAR SUNDARAYJITENDRA KUMAR SUNDARAY
JITENDRA KUMAR SUNDARAY
SRS. Dam Roy
S. Dam Roy
GPG.H. Pailan
G.H. Pailan

23 December 2015 in Aquaculture Research
Verified
Journal Article
Closed access
PDF file
SKSujeet Kumar
Sujeet Kumar
PAPanantharayil S Shyne Anand
Panantharayil S Shyne Anand
DDDebasis De
Debasis De
ADAshutosh D Deo
Ashutosh D Deo
TGTapas K Ghoshal
Tapas K Ghoshal
NLNatarajan Lalitha
Natarajan Lalitha

1 July 2010 in Aquaculture
Verified
Journal Article
Closed access
GBG. Biswas
G. Biswas
ATA.R. Thirunavukkarasu
A.R. Thirunavukkarasu
JITENDRA KUMAR SUNDARAYJITENDRA KUMAR SUNDARAY
JITENDRA KUMAR SUNDARAY
MKM. Kailasam
M. Kailasam

1 May 2013 in Aquaculture
Verified
Journal Article
Closed access
PAP.S. Shyne Anand
P.S. Shyne Anand
MKM.P.S. Kohli
M.P.S. Kohli
SRS. Dam Roy
S. Dam Roy
JITENDRA KUMAR SUNDARAYJITENDRA KUMAR SUNDARAY
JITENDRA KUMAR SUNDARAY
SKSujeet Kumar
Sujeet Kumar
SMSukham Munilkumar
Sukham Munilkumar

2 September 2012 in Aquaculture International
Verified
Journal Article
Closed access
PDF file
PAP. S. Shyne Anand
P. S. Shyne Anand
SKSujeet Kumar
Sujeet Kumar
APA. Panigrahi
A. Panigrahi
TGT. K. Ghoshal
T. K. Ghoshal
JDJ. Syama Dayal
J. Syama Dayal
PRP. Ravichandran
P. Ravichandran

19 June 2023 in Toxics
Verified
Journal Article
Open access
PDF file
SNSipra Nayak
Sipra Nayak
GSGunanidhi Sahoo
Gunanidhi Sahoo
IDIpsita Iswari Das
Ipsita Iswari Das
AMAman Kumar Mohanty
Aman Kumar Mohanty
RKRajesh Kumar
Rajesh Kumar
JITENDRA KUMAR SUNDARAYJITENDRA KUMAR SUNDARAY
JITENDRA KUMAR SUNDARAY
Poly- and perfluoroalkyl substances (PFASs) are a group of anthropogenic chemicals with an aliphatic fluorinated carbon chain. Due to their durability, bioaccumulation potential, and negative impacts on living organisms, these compounds have drawn lots of attention across the world. The negative impacts of PFASs on aquatic ecosystems are becoming a major concern due to their widespread use in increasing concentrations and constant leakage into the aquatic environment. Furthermore, by acting as agonists or antagonists, PFASs may alter the bioaccumulation and toxicity of certain substances. In many species, particularly aquatic organisms, PFASs can stay in the body and induce a variety of negative consequences, such as reproductive toxicity, oxidative stress, metabolic disruption, immunological toxicity, developmental toxicity, cellular damage and necrosis. PFAS bioaccumulation plays a significant role and has an impact on the composition of the intestinal microbiota, which is influenced by the kind of diet and is directly related to the host’s well-being. PFASs also act as endocrine disruptor chemicals (EDCs) which can change the endocrine system and result in dysbiosis of gut microbes and other health repercussions. In silico investigation and analysis also shows that PFASs are incorporated into the maturing oocytes during vitellogenesis and are bound to vitellogenin and other yolk proteins. The present review reveals that aquatic species, especially fishes, are negatively affected by exposure to emerging PFASs. Additionally, the effects of PFAS pollution on aquatic ecosystems were investigated by evaluating a number of characteristics, including extracellular polymeric substances (EPSs) and chlorophyll content as well as the diversity of the microorganisms in the biofilms. Therefore, this review will provide crucial information on the possible adverse effects of PFASs on fish growth, reproduction, gut microbial dysbiosis, and its potential endocrine disruption. This information aims to help the researchers and academicians work and come up with possible remedial measures to protect aquatic ecosystems as future works need to be focus on techno-economic assessment, life cycle assessment, and multi criteria decision analysis systems that screen PFAS-containing samples. New innovative methods requires further development to reach detection at the permissible regulatory limits.