Matches in SemOpenAlex for { <https://semopenalex.org/work/W3153339528> ?p ?o ?g. }
- W3153339528 endingPage "105828" @default.
- W3153339528 startingPage "105828" @default.
- W3153339528 abstract "• Safety of superparamagnetic magnetite nano-particles (MNPs) aqueous suspension in counteracting and removing the toxic effect of Hg ions and prevent their accumulation in muscles. • The highest adsorption loading of MNPs to Hg ions was at a concentration of 1 ppm . • The exposed fish to Hg ions showed a low growth, increased feed conversion rate with the lowest return, and microcytic hypochromic anemia, also, a sharp and clear depletion in the immune and antioxidant indicators. • MNPs recovered the hematological, biochemical, and histological parameters. Among toxic pollutants, Mercury (Hg) is a toxic heavy metal that induces harmful impacts on aquatic ecosystems directly and human being's health indirectly. This study confirmed the in vitro magnetic potential of magnetite Nano-Particles (Fe 3 O 4 NPs) against waterborne Hg exposure-induced toxicity in Nile tilapia ( Oreochromis niloticus ). We further evaluate the safety profile of Fe 3 O 4 NPs on fish growth, hemato-biochemical, histological parameters, bioaccumulation in muscles, and economy. Magnetite nanoparticles were characterized, adsorption loading to Hg ions was investigated, and testing different concentrations of Fe 3 O 4 NPs (0.2, 0.4, 0.6, 0.8, and 1.0 mg/L) was applied to determine the highest concentration of adsorption. An in vivo experiment includes 120 fish with an average weight of 26.2 ± 0.26 g were randomly divided into 4 equal groups, each group had three replicates ( n = 30 fish/group; 10 fish/ replicate). All groups were fed on a reference basal diet and the experiment was conducted for 30 days. The first group (G 1 ) was allocated as a control. The second group (G 2 ) received 1.0 mg/L aqueous suspension of Fe 3 O 4 NPs. The third group (G 3 ) was exposed to an aqueous solution of Hg ions at a concentration of 0.025 mg/L. Meanwhile, the fourth group (G 4 ) acquired an aqueous suspension composed of a mixture of Hg ions and Fe 3 O 4 NPs as previously mentioned. Throughout the exposure period, the clinical signs, symptoms, and mortalities were recorded. The Hg ions-exposed group induced the following consequences; reduced appetite resulting in reduced growth and less economic efficiency; microcytic hypochromic anemia, leukocytosis, lymphopenia, and neutrophilia; sharp and clear depletion in the immune indicators including lysozymes activity, immunoglobulin M (IgM), and Myeloperoxidase activities (MPO); significant higher levels of ALT, AST, urea, creatinine, and Superoxide dismutase (SOD); histological alterations of gill, hepatic and muscular tissues with strong expression of apoptotic marker (caspase 3); and a higher accumulation of Hg ions in the muscles. Surprisingly, Fe 3 O 4 NPs-supplemented groups exhibited strong adsorption capacity against the Hg ions and mostly removed the Hg ions accumulation in the muscles. Also, the hematological, biochemical, and histological parameters were recovered. Thus, in order to assess the antitoxic role of Fe 3 O 4 NPs against Hg and their safety on O. niloticus , and fill the gap of the research, the current context was investigated to evaluate the promising role of Fe 3 O 4 NPs to prevent Hg-exposure-induced toxicity and protection of fish health, which ascertains essentiality for sustainable development of nanotechnology in the aquatic environment." @default.
- W3153339528 created "2021-04-26" @default.
- W3153339528 creator A5024355513 @default.
- W3153339528 creator A5030517786 @default.
- W3153339528 creator A5032893155 @default.
- W3153339528 creator A5055433803 @default.
- W3153339528 creator A5066949196 @default.
- W3153339528 creator A5078489494 @default.
- W3153339528 creator A5078853177 @default.
- W3153339528 creator A5079254847 @default.
- W3153339528 creator A5086457494 @default.
- W3153339528 creator A5086868545 @default.
- W3153339528 creator A5091864309 @default.
- W3153339528 date "2021-06-01" @default.
- W3153339528 modified "2023-09-30" @default.
- W3153339528 title "Adsorptivity of mercury on magnetite nano-particles and their influences on growth, economical, hemato-biochemical, histological parameters and bioaccumulation in Nile tilapia (Oreochromis niloticus)" @default.
- W3153339528 cites W152592757 @default.
- W3153339528 cites W1725300350 @default.
- W3153339528 cites W1910238740 @default.
- W3153339528 cites W1964378056 @default.
- W3153339528 cites W1977412532 @default.
- W3153339528 cites W1981262005 @default.
- W3153339528 cites W1991095373 @default.
- W3153339528 cites W1992925402 @default.
- W3153339528 cites W2007517675 @default.
- W3153339528 cites W2008757142 @default.
- W3153339528 cites W2019459761 @default.
- W3153339528 cites W2030920679 @default.
- W3153339528 cites W2032363233 @default.
- W3153339528 cites W2033416281 @default.
- W3153339528 cites W2037864795 @default.
- W3153339528 cites W2040070046 @default.
- W3153339528 cites W2040136224 @default.
- W3153339528 cites W2044683696 @default.
- W3153339528 cites W2053720633 @default.
- W3153339528 cites W2089976674 @default.
- W3153339528 cites W2096428903 @default.
- W3153339528 cites W2101116633 @default.
- W3153339528 cites W2115772647 @default.
- W3153339528 cites W2158025958 @default.
- W3153339528 cites W2293304736 @default.
- W3153339528 cites W2379938844 @default.
- W3153339528 cites W2444249145 @default.
- W3153339528 cites W2576194565 @default.
- W3153339528 cites W2625189970 @default.
- W3153339528 cites W2762387572 @default.
- W3153339528 cites W2793609845 @default.
- W3153339528 cites W2799676432 @default.
- W3153339528 cites W2886840509 @default.
- W3153339528 cites W2911457684 @default.
- W3153339528 cites W2911668907 @default.
- W3153339528 cites W2913759698 @default.
- W3153339528 cites W2915682692 @default.
- W3153339528 cites W2916425575 @default.
- W3153339528 cites W2921291027 @default.
- W3153339528 cites W2921925746 @default.
- W3153339528 cites W2946508391 @default.
- W3153339528 cites W2954376224 @default.
- W3153339528 cites W2962296124 @default.
- W3153339528 cites W2963152152 @default.
- W3153339528 cites W2965424571 @default.
- W3153339528 cites W2969988336 @default.
- W3153339528 cites W2971912166 @default.
- W3153339528 cites W2996893507 @default.
- W3153339528 cites W3000523419 @default.
- W3153339528 cites W3000540727 @default.
- W3153339528 cites W3004438379 @default.
- W3153339528 cites W3008248800 @default.
- W3153339528 cites W3043804730 @default.
- W3153339528 cites W3049001257 @default.
- W3153339528 cites W3081914689 @default.
- W3153339528 cites W3086445674 @default.
- W3153339528 cites W3088102354 @default.
- W3153339528 cites W3109534209 @default.
- W3153339528 cites W3138395652 @default.
- W3153339528 doi "https://doi.org/10.1016/j.aquatox.2021.105828" @default.
- W3153339528 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33901865" @default.
- W3153339528 hasPublicationYear "2021" @default.
- W3153339528 type Work @default.
- W3153339528 sameAs 3153339528 @default.
- W3153339528 citedByCount "21" @default.
- W3153339528 countsByYear W31533395282021 @default.
- W3153339528 countsByYear W31533395282022 @default.
- W3153339528 countsByYear W31533395282023 @default.
- W3153339528 crossrefType "journal-article" @default.
- W3153339528 hasAuthorship W3153339528A5024355513 @default.
- W3153339528 hasAuthorship W3153339528A5030517786 @default.
- W3153339528 hasAuthorship W3153339528A5032893155 @default.
- W3153339528 hasAuthorship W3153339528A5055433803 @default.
- W3153339528 hasAuthorship W3153339528A5066949196 @default.
- W3153339528 hasAuthorship W3153339528A5078489494 @default.
- W3153339528 hasAuthorship W3153339528A5078853177 @default.
- W3153339528 hasAuthorship W3153339528A5079254847 @default.
- W3153339528 hasAuthorship W3153339528A5086457494 @default.
- W3153339528 hasAuthorship W3153339528A5086868545 @default.
- W3153339528 hasAuthorship W3153339528A5091864309 @default.
- W3153339528 hasConcept C107872376 @default.
- W3153339528 hasConcept C13965031 @default.