Citations Report

Environmental & Analytical Toxicology : Citations & Metrics Report

Articles published in Environmental & Analytical Toxicology have been cited by esteemed scholars and scientists all around the world.

Environmental & Analytical Toxicology has got h-index 37, which means every article in Environmental & Analytical Toxicology has got 37 average citations.

Following are the list of articles that have cited the articles published in Environmental & Analytical Toxicology.

	2024	2023	2022	2021	2020	2019	2018
Total published articles	40	31	70	60	28	13	48
Research, Review articles and Editorials	3	5	17	21	15	10	48
Research communications, Review communications, Editorial communications, Case reports and Commentary	37	25	38	9	9	3	0
Conference proceedings	0	6	5	0	0	0	127
Citations received as per Google Scholar, other indexing platforms and portals	6841	5266	834	802	848	809	674

Journal total citations count	6818
Journal impact factor	2.3
Journal 5 years impact factor	19.22
Journal cite score	20.87
Journal h-index	37
Journal h-index since 2019	30

Important citations

Majedi SM, Kelly BC, Lee HK (2014) Combined effects of water temperature and chemistry on the environmental fate and behavior of nanosized zinc oxide. Science of The Total Environment 496:585-593. View at Publisher View at Google Scholar
Zhang W (2014) Nanoparticle aggregation: principles and modeling. InNanomaterial 19-43 Springer Netherlands. View at Publisher View at Google Scholar
Majlesi M, Daraei H (2016) Preparation and adsorption properties of chitosan-bound Fe3O4 magnetic nanoparticles for phenol removal from aqueous solution. World Review of Science, Technology and Sustainable Development 12: 371-380. View at Publisher View at Google Scholar
Minella M, Sappa E, Hanna K, Barsotti F, Maurino V, et al. (2016) Considerable Fenton and photo-Fenton reactivity of passivated zero-valent iron. RSC Advances 6: 86752-86761. View at Publisher View at Google Scholar
Yazdanbakhsh AR, Daraei H, Rafiee M, Kamali H (2016) Performance of iron nano particles and bimetallic Ni/Fe nanoparticles in removal of amoxicillin trihydrate from synthetic wastewater. Water Science and Technology 73: 2998-3007. View at Publisher View at Google Scholar
Kibet JK (2016) Computational Modeling of 2-Monochlorophenol and 2-Monochlorothiophenol. Kabarak Journal of Research & Innovation 4: 49-61. View at Publisher View at Google Scholar
Ã˜Â®Ã™â€žÃ›Å’Ã™â€žÃ›Å’ Ã˜Â³, Ã˜Â¬Ã™â€¡Ã˜Â§Ã™â€ ÃšÂ¯Ã›Å’Ã˜Â±Ã›Å’ Ã˜Â§, Ã˜Â§Ã˜Â¨Ã™Ë†Ã™â€žÃ™ÂÃ˜Â¶Ã™â€ž, Ã˜Â§Ã™â€¦Ã˜Â§Ã™â€ Ã›Å’, Ã˜Â³Ã™â€žÃ™â€¦Ã˜Â§Ã™â€ Ã›Å’Ã˜Â§Ã™â€ , Ã˜Â¹Ã™â€žÃ›Å’ Ã™â€¡Ã˜Â§Ã˜ÂªÃ™Â. ÃšÂ©Ã˜Â§Ã˜Â±Ã˜Â¨Ã˜Â±Ã˜Â¯ Ã˜Â¨Ã›Å’Ã™Ë†Ã˜Â§Ã™â€ Ã™ÂÃ™Ë†Ã˜Â±Ã™â€¦Ã˜Â§Ã˜ÂªÃ›Å’ÃšÂ© Ã˜Â¯Ã˜Â± Ã™â€¦Ã˜Â·Ã˜Â§Ã™â€žÃ˜Â¹Ã˜Â§Ã˜Âª Ã˜Â§Ã›Å’Ã™â€¦Ã™â€ Ã›Å’Ã¢â‚¬Å’Ã˜Â´Ã™â€ Ã˜Â§Ã˜Â³Ã›Å’.(2014) Ã™â€¦Ã˜Â¬Ã™â€žÃ™â€¡ Ã™Â¾ÃšËœÃ™Ë†Ã™â€¡Ã˜Â´Ã¢â‚¬Å’Ã™â€¡Ã˜Â§Ã›Å’ Ã˜Â³Ã™â€žÃ™Ë†Ã™â€žÃ›Å’ Ã™Ë† Ã™â€¦Ã™Ë†Ã™â€žÃšÂ©Ã™Ë†Ã™â€žÃ›Å’. 27:192-.Ã¢â‚¬Å½ View at Publisher View at Google Scholar
Yazdanbakhsh AR, Daraei H, Davoodabadi M (2015) Degradation of phenol with using of Fenton-like Processes from water. Iranian Journal of Health, Safety and Environment 2: 325-329. View at Publisher View at Google Scholar
Chang J, Woo H, Ko MS, Lee J, Lee S, et al. (2015) Targeted removal of trichlorophenol in water by oleic acid-coated nanoscale palladium/zero-valent iron alginate beads. Journal of hazardous materials 293: 30-36. View at Publisher View at Google Scholar
Olatunji AS, Ajay F (2016) Potentially Toxic Contamination of Cultivated Wetlands in Lagos, Nigeria. Journal of Health and Pollution 6: 95-102. View at Publisher View at Google Scholar
Mundo Siglo XX (2015) AmÃƒÂ©rica Latina y MonsantoÃŽÂ± 5-20. View at Publisher View at Google Scholar
Mannise R. Analizan los cereales del desayunoÃ‚Â¿ Adivinen que se encontrÃƒÂ³?. View at Publisher View at Google Scholar
Changbhale SS, Mishra S, Gomase V. SVM BASED PREDICTION OF MAJOR HISTOCOMPATIBILITY COMPLEX BINDERS: EXPRESSION AND ANALYSIS OF MESOBUTHUS TAMULUSPEPTIDE. View at Publisher View at Google Scholar
Alam MJ, Ashraf KU, Gupta SD, Emon MA (2013) Computational approach for the prediction of potential MHC binding peptides and epitope mapping in order to develop sero-diagnostic immunogen against potato virus Y. Int J Comput Bioinfo Silico Model 2:186-198. View at Publisher View at Google Scholar
Henderson E. Home\| News\| News SEARCH. View at Publisher View at Google Scholar
Mason RA (2015) The sixth mass extinction and chemicals in the environment: our environmental deficit is now beyond nature’s ability to regenerate. View at Publisher View at Google Scholar
Rebai O, Belkhir M, Boujelben A, Fattouch S, Amri M (2017) Morus alba leaf extract mediates neuroprotection against glyphosate-induced toxicity and biochemical alterations in the brain. Environmental Science and Pollution Research 28: 1-9. View at Publisher View at Google Scholar
Pederson IB (2014) Global Research. View at Publisher View at Google Scholar
Kurniawan A, Ekowati N (2016) REVIEW: POTENSI MIKOREMEDIASI LOGAM BERAT. Jurnal Bioteknologi & Biosains Indonesia (JBBI) 3:36-45. View at Publisher View at Google Scholar
Seneff S, Samsel A, Bennett G (2015) Examining a Possible Link between Glyphosate Exposure and Health Status among Racehorses. View at Publisher View at Google Scholar
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Journal Highlights

Google Scholar citation report

Citations: 6818

Environmental & Analytical Toxicology received 6818 citations as per Google Scholar report

Environmental & Analytical Toxicology peer review process verified at publons

Indexed In

Index Copernicus
Google Scholar
Sherpa Romeo
Online Access to Research in the Environment (OARE)
Open J Gate
Genamics JournalSeek
JournalTOCs
Cosmos IF
Access to Global Online Research in Agriculture (AGORA)
RefSeek
Hamdard University
EBSCO A-Z
OCLC- WorldCat
Publons
Geneva Foundation for Medical Education and Research

Environmental & Analytical Toxicology