Effect of ultraviolet radiation (UVR) on the life stages of fish DOI Creative Commons
Ricardo N. Alves, Susana Agustı́

Reviews in Fish Biology and Fisheries, Год журнала: 2020, Номер 30(2), С. 335 - 372

Опубликована: Май 9, 2020

Abstract Current levels of Ultraviolet Radiation (UVR) represent a significant threat to many fish species. The first studies on the effects UVR organisms were performed at beginning twentieth century, and topic has been progressing continuously until present. Here, we review reported harmful ultraviolet B (UVB) A (UVA) radiations in different lifecycle stages, including embryo, larvae, juveniles adults. most evident negative during early development stages are an increase mortality incidence developmental malformations, with skin gills affected tissues larvae. Growth reduction, loss body condition, behavioral, physiological metabolic changes juveniles/adults occur under short- or long-term UVB exposure. undergoes profound morphological functional changes, even after acute exposure UVR. Impairment molecular cellular processes was evidenced all by increasing DNA damage, apoptosis changing tissues’ antioxidant status. photo-protective mechanisms cope excessive also revised. Currently, stratospheric ozone dynamics climate change interact strongly, enhancing potential water. Due these environmental exposed new complex interactions between stressors, which potentially affects growth survival. Understanding ability adapt will be essential evaluate impact fisheries mitigate ecological problems.

Язык: Английский

Environmental effects of ozone depletion, UV radiation and interactions with climate change: UNEP Environmental Effects Assessment Panel, update 2017 DOI
A. F. Bais, Robyn Lucas, Janet F. Bornman

и другие.

Photochemical & Photobiological Sciences, Год журнала: 2018, Номер 17(2), С. 127 - 179

Опубликована: Фев. 1, 2018

Язык: Английский

Процитировано

311
Freshwater environments as reservoirs of antibiotic resistant bacteria and their role in the dissemination of antibiotic resistance genes DOI
Chika Felicitas Nnadozie, Oghenekaro Nelson Odume

Environmental Pollution, Год журнала: 2019, Номер 254, С. 113067 - 113067

Опубликована: Авг. 20, 2019

Язык: Английский

Процитировано

292
Ozone depletion, ultraviolet radiation, climate change and prospects for a sustainable future DOI
Paul W. Barnes, Craig E. Williamson, Robyn Lucas

и другие.

Nature Sustainability, Год журнала: 2019, Номер 2(7), С. 569 - 579

Опубликована: Июнь 24, 2019

Язык: Английский

Процитировано

280
First evidence of microplastics in Antarctic snow DOI Creative Commons
Alex Aves, Laura E. Revell, Sally Gaw

и другие.

˜The œcryosphere, Год журнала: 2022, Номер 16(6), С. 2127 - 2145

Опубликована: Июнь 7, 2022

Abstract. In recent years, airborne microplastics have been identified in a range of remote environments. However, data throughout the Southern Hemisphere, particular Antarctica, are largely absent to date. We collected snow samples from 19 sites across Ross Island region Antarctica. Suspected microplastic particles were isolated and their composition confirmed using micro-Fourier transform infrared spectroscopy (µFTIR). all Antarctic at an average concentration 29 L−1, with fibres most common morphotype polyethylene terephthalate (PET) polymer. To investigate sources, backward air mass trajectories run time sampling. These indicate potential long-range transportation up 6000 km, assuming residence 6.5 d. Local sources also as inputs into environment polymers consistent those used clothing equipment nearby research stations. This study adds growing body literature regarding ubiquitous pollutant establishes presence

Язык: Английский

Процитировано

276
Effects of Ocean Acidification on Marine Photosynthetic Organisms Under the Concurrent Influences of Warming, UV Radiation, and Deoxygenation DOI Creative Commons
Kunshan Gao, John Beardall,

Donat‐P. Häder

и другие.

Frontiers in Marine Science, Год журнала: 2019, Номер 6

Опубликована: Июнь 18, 2019

The oceans take up over 1 million tons of anthropogenic CO2 per hour, increasing dissolved pCO2 and decreasing seawater pH in a process called ocean acidification. At the same time greenhouse warming surface results enhanced stratification shoaling upper mixed layers, exposing photosynthetic organisms dwelling here to increased visible UV radiation as well decreased nutrient supply. In addition, eutrophication reduce concentration O2 seawater, contributing spread hypoxic zones. All these global changes interact affect marine primary producers. Such interactions have been documented, but much smaller extent compared responses each single driver. combined effects could be synergistic, neutral or antagonistic depending on species physiological processes involved experimental setups. For most calcifying algae, impacts acidification, solar and/or elevated temperature clearly their calcification; for diatoms, light levels enhance growth at low, inhibit it high sunlight. nitrogen fixers (diazotrophs), acidification associated with may N2 fixation activity, other environmental variables such trace metal availability neutralize even reverse effects. Macroalgae, hand, either juveniles adults, appear benefit from rates tolerance lowered pH. There has little documentation deoxygenation producers, though theoretically concentrations selectively carboxylation oxygenation catalyzed by Rubisco thereby autotrophs. Overall, change biology studies used double stressors laboratory tests. This overview examines features warming, deoxygenation, focussing

Язык: Английский

Процитировано

220
Human health in relation to exposure to solar ultraviolet radiation under changing stratospheric ozone and climate DOI
Robyn Lucas, Seyhan Yazar, Antony R. Young

и другие.

Photochemical & Photobiological Sciences, Год журнала: 2019, Номер 18(3), С. 641 - 680

Опубликована: Фев. 27, 2019

Язык: Английский

Процитировано

193
Ozone—climate interactions and effects on solar ultraviolet radiation DOI
A. F. Bais, G. Bernhard, Richard McKenzie

и другие.

Photochemical & Photobiological Sciences, Год журнала: 2019, Номер 18(3), С. 602 - 640

Опубликована: Фев. 27, 2019

Язык: Английский

Процитировано

174
Environmental effects of stratospheric ozone depletion, UV radiation, and interactions with climate change: UNEP Environmental Effects Assessment Panel, Update 2020 DOI Creative Commons
Rachel Ε. Neale, Paul W. Barnes,

T. Matthew Robson

и другие.

Photochemical & Photobiological Sciences, Год журнала: 2021, Номер 20(1), С. 1 - 67

Опубликована: Янв. 1, 2021

Abstract This assessment by the Environmental Effects Assessment Panel (EEAP) of United Nations Environment Programme (UNEP) provides latest scientific update since our most recent comprehensive (Photochemical and Photobiological Sciences, 2019, 18, 595–828). The interactive effects between stratospheric ozone layer, solar ultraviolet (UV) radiation, climate change are presented within framework Montreal Protocol Sustainable Development Goals. We address how these global environmental changes affect atmosphere air quality; human health; terrestrial aquatic ecosystems; biogeochemical cycles; materials used in outdoor construction, energy technologies, fabrics. In many cases, there is a growing influence from seasonality extreme events due to change. Additionally, we assess transmission severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), which responsible for COVID-19 pandemic, context linkages with UV radiation Protocol.

Язык: Английский

Процитировано

173
Linkages between stratospheric ozone, UV radiation and climate change and their implications for terrestrial ecosystems DOI
Janet F. Bornman, Paul W. Barnes,

T. Matthew Robson

и другие.

Photochemical & Photobiological Sciences, Год журнала: 2019, Номер 18(3), С. 681 - 716

Опубликована: Фев. 27, 2019

Язык: Английский

Процитировано

166
Climate change and mercury in the Arctic: Abiotic interactions DOI Creative Commons
John Chételat, Melissa A. McKinney, Marc Amyot

и другие.

The Science of The Total Environment, Год журнала: 2022, Номер 824, С. 153715 - 153715

Опубликована: Фев. 9, 2022

Dramatic environmental shifts are occuring throughout the Arctic from climate change, with consequences for cycling of mercury (Hg). This review summarizes latest science on how change is influencing Hg transport and biogeochemical in terrestrial, freshwater marine ecosystems. As changes continue to accelerate, a clearer picture emerging profound cryosphere, their connections cycling. Modeling results suggest influences seasonal interannual variability atmospheric deposition. The clearest evidence current effects terrestrial catchments, where widespread permafrost thaw, glacier melt coastal erosion increasing export downstream environments. Recent estimates large global reservoir Hg, which vulnerable degradation warming, although fate soil unclear. development thermokarst features, formation expansion thaw lakes, increased landscapes river particulate-bound altering conditions aquatic transformations. Greater organic matter may also be Hg. More severe frequent wildfires within across boreal regions contributing pool Climate remain poorly understood. Seasonal evasion retention inorganic altered by reduced sea-ice cover higher chloride content snow. Experimental indicates warmer temperatures enhance methylmercury production ocean lake sediments as well tundra soils. Improved geographic coverage measurements modeling approaches needed better evaluate net long-term implications contamination Arctic.

Язык: Английский

Процитировано

85