Climate Change and UV Exposure
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Climate Change and UV Exposure
Climate change and ultraviolet (UV) radiation are connected through a complex set of atmospheric, ecological, and behavioral processes. Changes in stratospheric ozone, clouds, aerosols, snow and ice cover, surface reflectivity, temperature, precipitation, and atmospheric circulation can all influence how much ultraviolet radiation reaches Earth's surface. At the same time, UV radiation interacts with climate-related stresses such as warming, drought, ocean acidification, changing water clarity, and altered ecosystem conditions.
The relationship is not simply that climate change causes UV radiation to increase everywhere. Surface UV exposure varies considerably by location and can rise or fall depending on changes in ozone, cloud cover, aerosols, snow, vegetation, dissolved organic matter, and other environmental factors. Human exposure is also affected by behavior. Warmer conditions may encourage people to spend more time outdoors, potentially increasing personal UV exposure even where atmospheric UV levels change relatively little.
Research on climate change and UV exposure therefore spans atmospheric science, medicine, public health, ecology, agriculture, oceanography, wildlife biology, and materials science.
Ozone, Climate, and Surface UV Radiation
Stratospheric ozone is one of the most important controls on the amount of biologically damaging UV-B radiation reaching Earth's surface. Ozone depletion during the late twentieth century increased concern about rising UV exposure, especially in polar regions. International controls on ozone-depleting substances under the Montreal Protocol prevented substantially greater ozone losses and consequently avoided much larger increases in harmful ultraviolet radiation.
Ozone recovery, however, does not occur independently of climate change. Greenhouse gases alter atmospheric temperature and circulation, which can influence ozone distribution and recovery. Surface UV radiation is also affected by clouds, aerosols, air pollution, altitude, solar elevation, and surface reflectivity.
Long-term monitoring in Europe, Canada, Japan, Antarctica, South America, and other regions demonstrates that UV trends differ geographically. Some monitoring sites have experienced increases in surface ultraviolet radiation, while others show relatively stable or declining exposure. Climate models indicate that future UV conditions will depend on the combined evolution of ozone, atmospheric aerosols, cloud cover, and surface conditions.
Polar regions illustrate the complexity particularly well. Severe ozone depletion has produced episodes of exceptionally high ultraviolet radiation in Antarctica and the Arctic. Changes in snow and ice cover can further modify biological exposure because bright snow and ice reflect UV radiation, while loss of protective snow or ice may expose organisms directly to sunlight.
Climate Change and Human UV Exposure
Human exposure to ultraviolet radiation depends on both environmental UV levels and behavior. Temperature, season, latitude, clothing, occupation, recreational habits, and time spent outdoors all affect the amount of UV radiation an individual receives.
Climate warming may alter exposure patterns by changing the length of warm seasons and encouraging outdoor activity. Consequently, population exposure can change even when atmospheric ultraviolet radiation does not increase substantially.
Outdoor workers are a particularly important population. Studies of construction workers, fishermen, gardeners, lifeguards, agricultural workers, municipal employees, and other outdoor occupations have documented substantial cumulative solar UV exposure. Personal dosimeters have become an important tool for measuring these exposures.
Research has also examined occupational UV exposure as a risk factor for squamous-cell carcinoma, basal-cell carcinoma, melanoma, and other skin conditions. The evidence highlights the importance of workplace sun protection and occupational-health policies for people who spend large portions of their working lives outdoors.
Skin Cancer and Dermatological Health
Excessive ultraviolet radiation is an established environmental cause of skin damage and an important risk factor for several forms of skin cancer. Research included in this collection examines melanoma, basal-cell carcinoma, squamous-cell carcinoma, and other UV-related skin conditions.
Climate change may influence skin-cancer risk through several pathways. These include changes in surface UV radiation, higher temperatures, altered outdoor behavior, atmospheric ozone conditions, and longer periods of outdoor activity.
Studies examining melanoma and non-melanoma skin cancer show that cumulative solar exposure, recreational exposure, occupational exposure, and artificial tanning can contribute to disease burden. Global studies have attempted to quantify the proportion of melanoma and other skin cancers attributable to ultraviolet radiation.
Climate change also affects dermatological health through processes other than UV exposure. Heat, wildfire smoke, air pollution, allergens, humidity, infectious diseases, and extreme weather may influence a range of skin conditions. These overlapping environmental pressures make climate-sensitive dermatology a broader issue than sunlight exposure alone.
Eyes, Immunity, and Vitamin D
Ultraviolet radiation has both harmful and biologically useful effects. Excessive exposure can damage the eyes and contribute to ocular disease, while UV radiation also influences immune function and vitamin D production.
Research on photoimmunology shows that ultraviolet radiation can alter both local and systemic immune responses. These effects may influence susceptibility to disease and the biological response to environmental exposure.
UV-B radiation also initiates vitamin D production in human skin. The amount produced depends on latitude, season, time of day, exposed skin area, clothing, pigmentation, and available solar radiation.
Studies of sunscreen use generally examine the balance between reducing excessive UV exposure and maintaining adequate vitamin D status. Other research investigates the effects of skin pigmentation and clothing on vitamin D production, especially among people living at northern latitudes.
Climate-related changes in sunshine, temperature, outdoor behavior, and atmospheric conditions may therefore influence both the harmful and beneficial biological effects of solar radiation.
Plants, Agriculture, and Drought
Plants are continuously exposed to solar ultraviolet radiation, and UV-B can influence growth, photosynthesis, morphology, reproduction, plant chemistry, and stress responses.
Climate change introduces additional stresses, including drought, heat, elevated atmospheric carbon dioxide, changing precipitation, ozone exposure, and nutrient limitations. Research increasingly examines these factors together rather than treating UV radiation as an isolated environmental stressor.
Studies involving rice, maize, cotton, wheat, grapevines, chili peppers, kale, mustard, clover, willow, aspen, and other plants demonstrate that UV-B can interact with drought, temperature, carbon dioxide, and soil conditions in complex ways.
UV-B is not always purely harmful to plants. Moderate exposure can stimulate antioxidant defenses, flavonoids, UV-screening compounds, and other protective mechanisms. In some experiments, previous UV exposure improved aspects of drought tolerance. In other situations, elevated UV-B reduced plant productivity or intensified environmental stress.
Agricultural effects therefore depend on crop species, environmental conditions, exposure intensity, and interactions with other climate variables.
Soil, Decomposition, and the Carbon Cycle
Ultraviolet radiation can influence ecosystem carbon cycling by altering the decomposition of dead plant material. This process is particularly important in dry and semi-arid environments where intense sunlight can directly break down litter through photodegradation.
Studies from deserts, grasslands, Mediterranean ecosystems, and semi-arid environments show that solar radiation can accelerate decomposition. UV exposure can break down organic compounds and make litter more accessible to microorganisms.
The strength of this effect depends on precipitation, litter chemistry, temperature, microbial activity, and the position of plant material relative to the soil surface.
Because decomposition controls the movement of carbon and nutrients through ecosystems, climate-related changes in sunlight, drought, rainfall, and vegetation may interact with UV radiation to influence carbon cycling.
UV-B can also affect soil microorganisms, nutrient availability, root systems, and plant-soil interactions. These effects link ultraviolet radiation to broader questions concerning ecosystem productivity and climate feedbacks.
Lakes and Freshwater Ecosystems
Climate change can strongly modify underwater UV exposure. Unlike terrestrial environments, the amount of ultraviolet radiation reaching aquatic organisms depends heavily on water clarity.
Dissolved organic matter absorbs UV radiation. Increased rainfall can transport additional organic material into lakes and streams, producing a phenomenon sometimes called browning. Browner water generally reduces the penetration of ultraviolet radiation.
Other climate-related processes can have the opposite effect. Reduced ice cover, earlier snowmelt, altered precipitation, and changes in dissolved organic matter may expose aquatic organisms to increased UV radiation.
Research in Arctic, subarctic, alpine, Andean, and temperate lakes has examined these interactions. Zooplankton, microorganisms, algae, amphibians, and fish can all be affected.
UV radiation can also alter dissolved organic matter and influence chemical processes in water, potentially changing the cycling and bioavailability of contaminants such as mercury.
Oceans and Multiple Climate Stressors
Marine organisms experience ultraviolet radiation alongside warming, ocean acidification, nutrient changes, and other environmental stresses.
Experiments with phytoplankton, cyanobacteria, diatoms, macroalgae, coccolithophores, corals, and marine microorganisms demonstrate that the biological effect of UV radiation often depends on temperature and carbon dioxide levels.
Ocean acidification can alter photosynthetic responses to ultraviolet radiation. Warming may intensify UV-related stress in some organisms while reducing it in others. Temperate and polar species, for example, may respond differently to combinations of temperature and UV exposure.
Coral studies have examined interactions among elevated seawater temperatures, UV radiation, nutrients, and chemical UV-filter pollution. Because coral bleaching is strongly associated with thermal stress, ultraviolet radiation can act as an additional environmental pressure.
UV radiation can also influence marine biogeochemical processes. Research on the coccolithophore Emiliania huxleyi, for example, has examined how elevated carbon dioxide and UV radiation affect sulfur compounds involved in interactions between the ocean and atmosphere.
Amphibians, Fish, and Wildlife
Amphibians are among the organisms frequently studied for sensitivity to ultraviolet radiation. Eggs and larvae may be exposed to UV-B in shallow water, while temperature, disease, habitat changes, and water conditions can modify their vulnerability.
Research on frogs shows that warming can alter the physiological effects of UV-B. UV exposure can affect development, immune function, oxidative stress, pigmentation, survival, and behavior.
Extreme weather may also change exposure indirectly. Storms that remove vegetation can create canopy openings that suddenly expose normally shaded amphibians to higher levels of sunlight and UV-B.
Fish studies similarly demonstrate interactions between temperature and ultraviolet radiation. Experiments with salmon, zebrafish, and other fish show effects on immune function, movement, thermal preferences, physiological condition, and survival.
In polar regions, declining snow and ice cover can expose organisms that previously remained protected beneath reflective or shielding surfaces. Climate change can therefore alter biological UV exposure even without an increase in incoming ultraviolet radiation.
Materials and the Built Environment
Climate change and ultraviolet radiation also affect nonliving materials. Solar UV contributes to the degradation of plastics, wood, coatings, textiles, and other natural and synthetic materials.
Temperature and moisture can accelerate or modify these processes. As a result, changing climate conditions may influence the durability and lifetime of materials exposed outdoors.
Plastic degradation is particularly significant environmentally. UV radiation and heat can weaken plastics, causing cracking, weathering, and fragmentation. These processes may contribute to the formation of smaller plastic particles in the environment.
The interaction among UV exposure, temperature, atmospheric conditions, and material composition therefore has implications for infrastructure, consumer products, waste management, and plastic pollution.
Monitoring and Future Research
Understanding future UV exposure requires long-term monitoring. Ground-based spectrometers, satellite observations, personal dosimeters, atmospheric reanalysis, and climate models all contribute different types of information.
Long-term UV records are particularly important because changes caused by ozone, clouds, aerosols, pollution, snow cover, and climate variability can otherwise be difficult to distinguish.
Climate-model studies are increasingly projecting future UV Index values and biologically weighted ultraviolet doses. These projections suggest that future conditions will vary substantially among regions.
Research also increasingly focuses on multiple interacting environmental stresses. Organisms rarely experience warming, ultraviolet radiation, drought, acidification, pollution, and nutrient changes separately. Experiments that combine these pressures can therefore provide a more realistic picture of ecological responses to climate change.
Conclusion
The relationship between climate change and ultraviolet exposure is complex and varies across regions, ecosystems, and populations. Climate change does not produce a uniform worldwide increase in UV radiation. Instead, it changes many of the atmospheric and environmental factors that determine UV exposure, including ozone, clouds, aerosols, snow and ice, water clarity, temperature, precipitation, and human behavior.
These interactions have consequences for skin cancer and other health conditions, occupational exposure, eye health, immune responses, vitamin D production, crops, forests, soils, aquatic ecosystems, wildlife, carbon cycling, plastics, and the built environment.
The recovery of stratospheric ozone demonstrates the importance of successful international environmental policy, while continuing changes in climate illustrate why UV exposure must be understood as part of a broader system of interacting environmental pressures.
Future research and monitoring will be important for distinguishing changes in atmospheric UV radiation from changes in actual biological and human exposure. Combining atmospheric observations with health, ecological, behavioral, and climate data provides the most complete picture of how ultraviolet radiation will interact with a changing climate.
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Atmosphere, Ozone, UV Trends, and Climate Projections
1. UV Index from ERA5 Reanalysis [PMID:41807470 | UV climatology research team | Atmospheric research literature | 2026]
Develops a method for deriving hourly UV Index values from ERA5 atmospheric and surface parameters.
2. Trends in UV Radiation and Ozone in South America and Antarctica [doi:10.1111/php.70054 | Cogo Borin B et al. | Photochemistry and Photobiology | 2026]
Evaluates recent ozone and ultraviolet radiation trends across South American and Antarctic monitoring locations.
3. Recent Increases in Solar UV Radiation Across Europe: A 40-Location Study to Identify Trend Boundaries [doi:10.1007/s43630-026-00971-4 | Schmalwieser AW et al. | Photochemical & Photobiological Sciences | 2026]
Uses measurements from dozens of European sites to investigate the geographical extent and causes of recent increases in surface ultraviolet radiation.
4. Twenty-First Century Surface UV Radiation Changes Deduced from CMIP6 Models. Part II: Effects on UV Index and Plant Growth Weighted Irradiance [PMID:39719535 | CMIP6 UV research team | Photochemical & Photobiological Sciences | 2025]
Projects future geographical changes in the UV Index and plant-weighted ultraviolet irradiance under several Shared Socioeconomic Pathways.
5. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2024 Update [PMID:40095356 | UNEP Environmental Effects Assessment Panel | Photochemical & Photobiological Sciences | 2025]
Provides an updated international assessment of interactions among ozone, ultraviolet radiation, climate change, ecosystems, human health, and environmental processes.
6. 21st Century Surface UV Radiation Changes Deduced from CMIP6 Models: Part I—Evolution of Major Influencing Factors [PMID:39757342 | CMIP6 UV research team | Photochemical & Photobiological Sciences | 2025]
Examines how ozone, aerosols, clouds, and surface reflectivity are projected to influence surface ultraviolet radiation through the twenty-first century.
7. Projected Changes in Ultraviolet Index and UV Doses over the Twenty-First Century: Impacts of Ozone and Aerosols from CMIP6 [PMID:38762827 | Yamamoto ALC et al. | Photochemical & Photobiological Sciences | 2024]
Uses CMIP6 projections to estimate how future ozone and aerosol changes may alter UV Index and accumulated ultraviolet doses.
8. Increasing Solar UV Radiation in Dortmund, Germany: Data and Trend Analyses and Comparison to Uccle, Belgium [doi:10.1007/s43630-024-00658-8 | German UV monitoring research team | Photochemical & Photobiological Sciences | 2024]
Finds significant multi-decadal increases in measured UV radiation and examines ozone, global radiation, and sunshine duration as possible drivers.
9. Stratospheric Ozone, UV Radiation, and Climate Interactions [doi:10.1007/s43630-023-00371-y | Bernhard GH et al. | Photochemical & Photobiological Sciences | 2023]
Reviews interactions among stratospheric ozone recovery, climate change, clouds, aerosols, surface reflectivity, and the amount of ultraviolet radiation reaching Earth's surface.
10. Environmental Effects of Stratospheric Ozone Depletion, UV Radiation, and Interactions with Climate Change: 2022 Assessment [UNEP-EEAP-2022 | UNEP Environmental Effects Assessment Panel | UNEP | 2023]
Synthesizes current evidence on ozone recovery, climate change, UV exposure, health, ecosystems, materials, air quality, and biogeochemical processes.
11. Updated Analysis of Ultraviolet Radiation at Palmer Station, Antarctica [PMID:35195892 | Bernhard GH et al. | Photochemical & Photobiological Sciences | 2022]
Shows the continuing large influence of Antarctic ozone depletion on biologically important ultraviolet radiation at the Earth's surface.
12. Relationship Between Ozone and Biologically Relevant UV at Four NDACC Sites [PMID:35962279 | McKenzie RL et al. | Photochemical & Photobiological Sciences | 2022]
Separates ozone effects from clouds and aerosols to examine how seasonal ozone variability alters biologically important ultraviolet radiation.
13. Persistent Extreme Ultraviolet Irradiance in Antarctica Despite the Ozone Recovery Onset [PMID:35075240 | Cordero RR et al. | Scientific Reports | 2022]
Shows that late-season Antarctic ozone-hole conditions can continue producing extreme surface UV events despite signs of ozone recovery.
14. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2021 Update [PMID:35191005 | UNEP Environmental Effects Assessment Panel | Photochemical & Photobiological Sciences | 2022]
Reviews new research on changing ozone, climate, UV radiation, ecosystems, health effects, and atmospheric chemistry.
15. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2020 Update [doi:10.1007/s43630-020-00001-x | UNEP Environmental Effects Assessment Panel | Photochemical & Photobiological Sciences | 2021]
Describes recent evidence linking climate change with ozone chemistry, surface UV radiation, biological impacts, and environmental feedbacks.
16. Developing a UV Climatology for Public Health Purposes Using Satellite Data [doi:10.1016/j.envint.2020.106177 | Vuilleumier L et al. | Environment International | 2021]
Describes a high-resolution satellite-based UV climatology designed for population exposure and public-health studies.
17. Solar UV Irradiance in a Changing Climate: Trends in Europe and the Significance of Spectral Monitoring in Italy [Article:Environments-7-1 | Research team | Environments | 2020]
Reviews European ultraviolet trends and shows why long-term spectral measurements are important for separating ozone and climate influences.
18. Record-Breaking Increases in Arctic Solar Ultraviolet Radiation Caused by Exceptionally Large Ozone Depletion in 2020 [doi:10.1029/2020GL090844 | Bernhard GH et al. | Geophysical Research Letters | 2020]
Documents exceptionally high Arctic UV radiation during severe springtime ozone depletion in 2020.
19. Possible Effects of Greenhouse Gases on Ozone Profiles and DNA-Active UV-B Irradiance at Ground Level [doi:10.3390/atmos11030228 | Eleftheratos K et al. | Atmosphere | 2020]
Investigates how greenhouse-gas-driven changes in atmospheric temperature and ozone may influence biologically effective UV-B at the surface.
20. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2019 Update [doi:10.1039/D0PP90011G | UNEP Environmental Effects Assessment Panel | Photochemical & Photobiological Sciences | 2020]
Summarizes emerging findings on climate-driven changes in ozone, UV exposure, ecosystems, human health, and atmospheric processes.
21. DNA Damage Induced by Late Spring Sunlight in Antarctica [PMID:32614978 | Antarctic photobiology research team | Photochemical & Photobiological Sciences | 2020]
Measures biologically damaging effects of natural Antarctic sunlight under conditions influenced by severe ozone depletion.
22. UV Radiation in Germany: Influences of Ozone Depletion and Climate Change [PMID:30989260 | Baldermann C et al. | Bundesgesundheitsblatt / Public Health Review | 2019]
Reviews observed UV exposure in Germany and the potential influence of ozone recovery, clouds, aerosols, climate, and human behavior.
23. Ozone Depletion, Ultraviolet Radiation, Climate Change and Prospects for a Sustainable Future [doi:10.1038/s41893-019-0314-2 | Barnes PW et al. | Nature Sustainability | 2019]
Examines the intertwined environmental effects of ozone depletion, UV radiation, climate change, and international efforts to protect the atmosphere.
24. Changes in the Total Ozone Content over 2006–2100 and Effects on Erythemal and Vitamin D Effective UV Doses for South America and Antarctica [PMID:31696195 | UV projection research team | Photochemical & Photobiological Sciences | 2019]
Projects how ozone recovery may change harmful and vitamin-D-effective ultraviolet radiation across South America and Antarctica.
25. Twenty-Five Years of Spectral UV-B Measurements over Canada, Europe and Japan: Trends and Effects from Changes in Ozone, Aerosols, Clouds, and Surface Reflectivity [doi:10.1016/j.crte.2018.07.011 | Fountoulakis I et al. | Comptes Rendus Geoscience | 2018]
Uses long-term observations to distinguish the influence of ozone, aerosols, clouds, and surface reflectivity on measured UV-B trends.
26. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2017 Update [doi:10.1039/C7PP90043K | UNEP Environmental Effects Assessment Panel | Photochemical & Photobiological Sciences | 2018]
Reviews evidence that ozone depletion and climate change interact in ways that influence UV radiation and biological and environmental systems.
27. Projected Changes in Erythemal and Vitamin D Effective Irradiance over Northern-Hemisphere High Latitudes [PMID:26053952 | Fountoulakis I et al. | Photochemical & Photobiological Sciences | 2015]
Uses climate-model projections of ozone, clouds, aerosols, and reflectivity to estimate future high-latitude UV exposure.
28. Ozone Depletion and Climate Change: Impacts on UV Radiation [doi:10.1039/C4PP90032D | Bais AF et al. | Photochemical & Photobiological Sciences | 2015]
Reviews how ozone, clouds, aerosols, snow cover, surface reflectivity, and climate processes influence current and future surface UV radiation.
29. Projected Changes in Clear-Sky Erythemal and Vitamin D Effective UV Doses for Europe over the Period 2006 to 2100 [PMID:23549360 | European UV projection research team | Photochemical & Photobiological Sciences | 2013]
Models future European erythemal and vitamin-D-effective UV exposure under projected ozone and aerosol changes.
30. UV Impacts Avoided by the Montreal Protocol [doi:10.1039/C0PP00387E | Newman PA and McKenzie R | Photochemical & Photobiological Sciences | 2011]
Estimates how Montreal Protocol controls prevented severe ozone depletion and much larger increases in biologically damaging ultraviolet radiation.
31. Signatures of the Antarctic Ozone Hole in Southern Hemisphere Surface Climate Change [doi:10.1038/ngeo1296 | Thompson DWJ et al. | Nature Geoscience | 2011]
Reviews how Antarctic ozone depletion has affected Southern Hemisphere atmospheric circulation and surface climate.
32. Ozone Depletion and Climate Change: Impacts on UV Radiation [doi:10.1039/C0PP90034F | McKenzie RL et al. | Photochemical & Photobiological Sciences | 2011]
Assesses observed and projected changes in UV radiation in relation to stratospheric ozone depletion and a changing climate.
33. The UV Index: Definition, Distribution and Factors Affecting It [doi:10.1007/BF03405303 | Fioletov VE | Canadian Journal of Public Health | 2010]
Reviews how ozone, clouds, aerosols, altitude, snow, and solar elevation determine the geographical distribution of the UV Index.
34. Variations and Trends of Biologically Effective Doses of Solar Ultraviolet Radiation in Asia, Europe and South America from 1999 to 2007 [PMID:19639113 | Munakata N et al. | Photochemical & Photobiological Sciences | 2009]
Uses biological dosimeters to compare multi-year UV trends across numerous sites and relate them to ozone and climatic variability.
35. Changes in Biologically-Active Ultraviolet Radiation Reaching the Earth's Surface [PMID:17344959 | McKenzie RL et al. | Photochemical & Photobiological Sciences | 2007]
Reviews long-term changes in biologically active UV radiation and the roles of ozone, circulation, pollution, and polar variability.
36. UV Climatology at McMurdo Station, Antarctica, Based on Version 2 Data of the National Science Foundation's Ultraviolet Radiation Monitoring Network [doi:10.1029/2005JD005857 | Bernhard G et al. | Journal of Geophysical Research: Atmospheres | 2006]
Develops a long-term Antarctic UV climatology and evaluates effects from ozone, clouds, aerosols, and snow reflectivity.
37. Coupling of Climate Change and Biotic UV Exposure Through Changing Snow-Ice Covers in Terrestrial Habitats [PMID:14974712 | Cockell CS et al. | Photochemical & Photobiological Sciences | 2004]
Shows how climate-driven changes in snow and ice cover can substantially alter UV exposure even without additional ozone loss.
38. A European Satellite-Derived UV Climatology Available for Impact Studies [doi:10.1093/rpd/nch063 | Verdebout J | Radiation Protection Dosimetry | 2004]
Develops a European UV climatology showing strong geographical and interannual variability related to clouds, altitude, snow, and atmospheric conditions.
39. Environmental Effects of Ozone Depletion and Its Interactions with Climate Change: 2002 Assessment [UNEP-EEAP-2002 | UNEP Environmental Effects Assessment Panel | UNEP | 2003]
Provides an earlier comprehensive baseline for understanding how ozone depletion, ultraviolet radiation, and climate change interact.
40. Seasonal Fluctuation of DNA Photodamage in Marine Plankton Assemblages at Palmer Station, Antarctica [PMID:11950092 | Meador J et al. | Photochemistry and Photobiology | 2002]
Links seasonal ozone loss and UV-B exposure with DNA damage in natural Antarctic phytoplankton and bacterioplankton communities.
41. Evaluation of DNA Dosimetry to Assess Ozone-Mediated Variability of Biologically Harmful Radiation in Antarctica [PMID:12403448 | George AL, Peat HJ and Buma AGJ | Photochemistry and Photobiology | 2002]
Tests biological dosimeters for tracking variations in damaging UV-B radiation during Antarctic ozone-hole conditions.
42. Future UV Radiation in Central Europe Modelled from Ozone Scenarios [doi:10.1016/S1011-1344(01)00143-9 | Reuder J, Dameris M and Koepke P | Journal of Photochemistry and Photobiology B | 2001]
Models how different future ozone scenarios could influence ultraviolet radiation levels over Central Europe.
43. Changes in Biologically Active Ultraviolet Radiation Reaching the Earth's Surface [doi:10.1016/S1011-1344(98)00182-1 | Madronich S et al. | Journal of Photochemistry and Photobiology B | 1998]
Reviews the atmospheric processes controlling biologically effective surface UV and the consequences of changing stratospheric ozone.
44. Effects of Clouds and Stratospheric Ozone Depletion on Ultraviolet Radiation Trends [doi:10.1038/377710a0 | Lubin D and Jensen EH | Nature | 1995]
Demonstrates that cloud changes can substantially modify surface UV trends and complicate interpretation of changes caused by ozone depletion.
45. Ultraviolet Radiation Levels During the Antarctic Spring [doi:10.1126/science.241.4864.438 | Frederick JE and Snell HE | Science | 1988]
Provides an early quantitative assessment of increased Antarctic surface UV radiation resulting from the ozone hole.
Skin Cancer, Dermatology, and Public Health
46. Ultraviolet Radiation: Health Impacts [EEA-Climate-Health-UV | European Environment Agency / European Climate and Health Observatory | 2026]
Describes how climate conditions and changing human exposure patterns can affect UV-related health risks in Europe.
47. The Environmental Determinants of Skin Health: Linking Climate Change, Air Pollution, and the Dermatologic Disease Burden [PMID:41464454 | Review authors | Dermatology literature | 2026]
Connects climate change, pollution, ozone changes, ultraviolet exposure, and multiple dermatological conditions.
48. Climate Change and Dermatologic Diseases in the Global South: A Rising Challenge [doi:10.1016/j.det.2025.08.004 | Enbiale W | Dermatologic Clinics | 2026]
Reviews climate-sensitive skin disease in the Global South, including risks associated with heat and changing ultraviolet exposure.
49. The Impact of Climate Change on Skin Cancer Incidence: Mechanisms, Vulnerabilities, and Mitigation Strategies [PMID:41158561 | Review authors | Frontiers in Public Health | 2025]
Reviews proposed mechanisms connecting climate change with ultraviolet exposure and skin cancer while discussing population vulnerabilities and prevention.
50. Global Assessment of Surface Ultraviolet Radiation and Malignant Skin Melanoma Incidence from 1990 to 2021 [PMID:41214082 | Study authors | Environmental health research | 2025]
Compares long-term geographical patterns of surface ultraviolet radiation with malignant melanoma incidence across global populations.
51. Relationship Between Climate Change and Skin Cancer and Implications for Prevention and Management: A Scoping Review [doi:10.1016/j.puhe.2023.12.003 | Review authors | Public Health | 2024]
Examines evidence linking climate change with skin-cancer risk through UV exposure, temperature, behavior, ozone, and environmental change.
52. Radiation: The Known Health Effects of Ultraviolet Radiation [WHO-UV-QA-2024 | World Health Organization | WHO | 2024]
Explains established health effects of UV radiation, including skin cancer, eye damage, sunburn, immune effects, and protective measures.
53. Evaluation of Weather and Environmental Factors and Their Association with Cutaneous Melanoma Incidence [doi:10.1016/j.jdin.2024.05.009 | Canadian melanoma research team | JAAD International | 2024]
Analyzes associations among melanoma incidence, UV exposure, temperature, heat events, precipitation, snowfall, and vegetation across Canada.
54. Long-Term Variability of Human-Health-Related Solar UV-B Doses [PMID:36787480 | Atmospheric monitoring researchers | Atmospheric research literature | 2023]
Investigates long-term variability in biologically weighted UV-B doses relevant to human health and links the changes to atmospheric conditions.
55. Impact of Climate Change on Non-Communicable Diseases Caused by Altered UV Radiation [PMID:37799535 | Baldermann C, Laschewski G and Grooß JU | Journal of Health Monitoring | 2023]
Reviews how climate-related changes in UV intensity and outdoor exposure could influence skin cancer, eye disease, and other UV-associated conditions.
56. Climate Change, Skin Health, and Dermatologic Disease: A Guide for the Dermatologist [doi:10.1007/s40257-023-00770-y | Belzer A and Parker ER | American Journal of Clinical Dermatology | 2023]
Reviews multiple ways climate change can affect skin health, including heat, air pollution, infectious disease, allergens, and UV exposure.
57. Ultraviolet Radiation [WHO-UV-Fact-Sheet | World Health Organization | WHO | 2022]
Summarizes the sources, measurement, health effects, and protective implications of exposure to solar and artificial ultraviolet radiation.
58. Global Burden of Cutaneous Melanoma in 2020 and Projections to 2040 [doi:10.1001/jamadermatol.2022.0160 | Arnold M et al. | JAMA Dermatology | 2022]
Estimates worldwide melanoma incidence and mortality and projects the future burden under demographic change.
59. UV Exposure and the Risk of Cutaneous Melanoma in Skin of Color: A Systematic Review [doi:10.1001/jamadermatol.2020.4616 | Lopes FCPS et al. | JAMA Dermatology | 2021]
Reviews evidence concerning ultraviolet exposure and melanoma risk among populations with darker skin pigmentation.
60. The Influence of Climate Change on Skin Cancer Incidence: A Review of the Evidence [Review:Climate-Skin-Cancer | Parker ER et al. | International Journal of Women's Dermatology | 2021]
Reviews pathways by which higher temperatures, behavioral changes, ozone conditions, and ultraviolet exposure may influence skin-cancer incidence.
61. The Global Burden of Skin Cancer: A Longitudinal Analysis from the Global Burden of Disease Study, 1990–2017 [doi:10.1016/j.jdin.2020.10.013 | Urban K et al. | JAAD International | 2021]
Tracks global changes in melanoma and keratinocyte-cancer burden over nearly three decades.
62. Estimation of Skin and Ocular Damage Avoided in the United States Through Implementation of the Montreal Protocol [doi:10.1021/acsearthspacechem.1c00183 | Madronich S et al. | ACS Earth and Space Chemistry | 2021]
Quantifies major reductions in future skin and eye damage resulting from avoided ozone depletion and associated ultraviolet exposure.
63. Current Burden of Non-Melanoma Skin Cancer Attributable to UV Radiation and Related Risk Behaviours in Canada [doi:10.1007/s10552-020-01382-1 | O'Sullivan DE et al. | Cancer Causes & Control | 2021]
Estimates the contribution of ultraviolet exposure and related behaviors to non-melanoma skin cancers in Canada.
64. Climate Change and Inpatient Dermatology [doi:10.1007/s13671-020-00310-5 | Coates SJ et al. | Current Dermatology Reports | 2020]
Reviews how heat, UV radiation, extreme weather, and shifting infectious diseases may alter dermatological disease patterns.
65. Human Health in Relation to Exposure to Solar Ultraviolet Radiation Under Changing Stratospheric Ozone and Climate [doi:10.1039/C8PP90060D | Lucas RM et al. | Photochemical & Photobiological Sciences | 2019]
Reviews how ozone recovery and climate-related changes in solar UV exposure can affect skin, eyes, immunity, vitamin D, and disease.
66. Estimates of Current and Future Burden of Melanoma Attributable to Ultraviolet Radiation in Canada [doi:10.1016/j.ypmed.2019.03.012 | O'Sullivan DE et al. | Preventive Medicine | 2019]
Estimates current and projected melanoma cases in Canada attributable to ultraviolet exposure.
67. Cumulative Solar UV Radiation Exposure and Basal Cell Carcinoma in a United States Cohort [doi:10.1186/s12940-019-0536-9 | Little MP et al. | Environmental Health | 2019]
Investigates the association between cumulative solar ultraviolet exposure and basal cell carcinoma risk in a large cohort.
68. Global Burden of Cutaneous Melanoma Attributable to Ultraviolet Radiation in 2012 [doi:10.1002/ijc.31527 | Arnold M et al. | International Journal of Cancer | 2018]
Estimates the worldwide melanoma burden attributable to ultraviolet radiation and highlights geographical and sex-related differences.
69. Cutaneous Melanoma in France in 2015 Attributable to Solar Ultraviolet Radiation and Sunbeds [doi:10.1111/jdv.15022 | Arnold M et al. | Journal of the European Academy of Dermatology and Venereology | 2018]
Quantifies melanoma cases attributable to natural solar UV radiation and artificial tanning exposure in France.
70. Climate Change and Its Relationship with Non-Melanoma Skin Cancers [doi:10.1039/C7PP00405B | Piacentini RD, Della Ceca LS and Ipiña A | Photochemical & Photobiological Sciences | 2018]
Examines links among climate, temperature, ultraviolet radiation, exposure behavior, and non-melanoma skin-cancer risk.
71. Climate Change and Atopic Dermatitis: Is There a Link? [PMID:29873062 | Review authors | International Journal of Dermatology | 2018]
Examines interactions among temperature, humidity, ultraviolet radiation, pollution, pollen, and atopic dermatitis.
72. Climate Change and Human Skin Cancer [doi:10.1039/B719302E | van der Leun JC, Piacentini RD and de Gruijl FR | Photochemical & Photobiological Sciences | 2008]
Discusses how warming and atmospheric changes could alter human UV exposure and potentially affect future skin-cancer risk.
Occupational and Personal UV Exposure
73. Sun Exposure and Cancer Outcomes in Outdoor Workers [doi:10.36849/JDD.9473 | Kalner S and Vergilis I | Journal of Drugs in Dermatology | 2026]
Reviews the significance of chronic occupational sunlight exposure for cancer incidence and long-term outcomes among outdoor workers.
74. Occupational Sun Exposure and Melanoma Development: A Review of the Evidence [doi:10.1111/ajd.70069 | Review authors | Australasian Journal of Dermatology | 2026]
Reviews epidemiological evidence concerning chronic workplace sunlight exposure and cutaneous melanoma.
75. Occupational Exposure to Solar Ultraviolet Radiation Among Outdoor Workers in Lisbon, 2023—First Results of the MEAOW Study [PMID:41221239 | MEAOW Study team | Occupational and Environmental Medicine literature | 2025]
Provides personal dosimetry measurements for multiple groups of outdoor municipal workers in Portugal.
76. Cutaneous Melanoma and Occupational UV Exposure: Associations with Anatomical Site, Histological Subtype, and Breslow Thickness [doi:10.3390/cancers17162705 | De Giorgi V et al. | Cancers | 2025]
Examines relationships between occupational solar exposure and melanoma location, subtype, and tumor thickness.
77. Solar Ultraviolet Radiation Exposure in Workers with Outdoor Occupations: A Systematic Review and Call to Action [doi:10.1111/ijd.16877 | Slavinsky V et al. | International Journal of Dermatology | 2024]
Reviews measured UV exposure and skin-cancer risks across construction, agriculture, postal, military, and other outdoor occupations.
78. Occupational Exposure to Solar Ultraviolet Radiation and Malignant Melanoma and Non-Melanoma Skin Cancer [WHO-ILO-UV-SYSTEMATIC-REVIEW | WHO and ILO research collaborators | WHO / Systematic Review | 2021]
Synthesizes epidemiological evidence concerning occupational solar UV exposure and skin-cancer risk among outdoor workers.
79. Global Evidence on Occupational Sun Exposure and Keratinocyte Cancers: A Systematic Review [doi:10.1111/bjd.19152 | Loney T et al. | British Journal of Dermatology | 2021]
Reviews international evidence linking occupational exposure to sunlight with basal-cell and squamous-cell skin cancers.
80. Bringing Light into Darkness—Comparison of Different Personal Dosimeters for Assessment of Solar Ultraviolet Exposure [PMID:34501660 | Wittlich M et al. | International Journal of Environmental Research and Public Health | 2021]
Compares electronic, biological, and film-based dosimeters used to quantify personal solar UV exposure.
81. Exposure to Solar UV Radiation in Outdoor Construction Workers Using Personal Dosimetry [doi:10.1016/j.envres.2019.108967 | Moldovan HR et al. | Environmental Research | 2020]
Measures high cumulative UV doses among construction workers using wearable personal dosimeters.
82. Exposure to Solar UV During Outdoor Construction Work in Britain [PMID:32155239 | Cherrie JW et al. | Annals of Work Exposures and Health | 2020]
Uses personal sensors to compare ultraviolet exposure among indoor and outdoor British construction workers.
83. Occupational Exposure to Solar UV Radiation of a Group of Fishermen Working in the Italian North Adriatic Sea [PMID:31434335 | Modenese A et al. | International Journal of Environmental Research and Public Health | 2019]
Quantifies solar UV exposure among fishermen and evaluates the influence of work practices and boat characteristics.
84. Burden of Non-Melanoma Skin Cancer Attributable to Occupational Sun Exposure in Canada [doi:10.1007/s00420-019-01454-z | Peters CE et al. | International Archives of Occupational and Environmental Health | 2019]
Estimates the occupational burden of non-melanoma skin cancer associated with workplace solar ultraviolet exposure.
85. Solar UV Exposure Among Outdoor Workers in Denmark Measured with Personal UV-B Dosimeters [PMID:29017484 | Grandahl K et al. | Photodermatology, Photoimmunology & Photomedicine | 2018]
Evaluates wearable UV dosimetry as a method for quantifying occupational and leisure exposure among Danish outdoor workers.
86. Occupational UV-Exposure Is a Major Risk Factor for Basal Cell Carcinoma: Results of the Population-Based Case-Control Study FB-181 [PMID:29111985 | Schmitt J et al. | Journal of Occupational and Environmental Medicine | 2018]
Reports an association between high lifetime workplace UV exposure and basal-cell carcinoma.
87. Is Ultraviolet Exposure Acquired at Work the Most Important Risk Factor for Cutaneous Squamous Cell Carcinoma? [PMID:28845516 | Schmitt J et al. | British Journal of Dermatology | 2018]
Compares occupational and non-occupational UV doses and finds a strong dose-response relationship for workplace exposure.
88. The Relationship Between Occupational Sun Exposure and Non-Melanoma Skin Cancer [PMID:23181135 | Diepgen TL et al. | Deutsches Ärzteblatt International | 2012]
Reviews occupational UV exposure, epidemiology, prevention, and evaluation of work-related non-melanoma skin cancer.
89. Occupational Skin Cancer Induced by Ultraviolet Radiation and Its Prevention [doi:10.1111/j.1365-2133.2012.11090.x | Diepgen TL and Drexler H | British Journal of Dermatology | 2012]
Reviews evidence concerning workplace solar UV exposure, occupational skin cancer, and prevention strategies.
90. Occupational Ultraviolet Light Exposure Increases the Risk for Cutaneous Squamous Cell Carcinoma [doi:10.1111/j.1365-2133.2010.10118.x | Schmitt J et al. | British Journal of Dermatology | 2011]
Meta-analyzes epidemiological studies linking occupational ultraviolet exposure with cutaneous squamous-cell carcinoma.
91. Is Occupational Solar Ultraviolet Irradiation a Relevant Risk Factor for Basal Cell Carcinoma? [doi:10.1111/j.1365-2133.2011.10425.x | Bauer A, Diepgen TL and Schmitt J | British Journal of Dermatology | 2011]
Systematically evaluates the relationship between outdoor work and basal-cell carcinoma.
92. Occupational Exposure to Non-Artificial UV-Light and Non-Melanocytic Skin Cancer [doi:10.1111/j.1610-0387.2009.07260.x | Schmitt J, Diepgen T and Bauer A | Journal der Deutschen Dermatologischen Gesellschaft | 2010]
Reviews epidemiological evidence linking occupational sunlight with squamous- and basal-cell skin cancers.
93. Erythemal Ultraviolet Exposure in Two Groups of Outdoor Workers in Valencia, Spain [doi:10.1111/j.1751-1097.2009.00609.x | Serrano MA et al. | Photochemistry and Photobiology | 2009]
Measures substantial daily erythemal UV exposure among gardeners and beach lifeguards.
94. The Wrist Is a Reliable Body Site for Personal Dosimetry of Ultraviolet Radiation [doi:10.1034/j.1600-0781.2000.d01-4.x | Thieden E et al. | Photodermatology, Photoimmunology & Photomedicine | 2000]
Tests the wrist as a practical location for measuring individual cumulative ultraviolet exposure.
95. Bacillus subtilis Spore Film Dosimeters in Personal Dosimetry for Occupational Solar Ultraviolet Exposure [doi:10.1007/s004200000183 | Moehrle M, Korn M and Garbe C | International Archives of Occupational and Environmental Health | 2000]
Demonstrates personal biological dosimetry among lifeguards, mountain guides, and ski instructors exposed to high solar UV.
Eyes, Immunity, Vitamin D, and Human Exposure
96. Climate Change and Its Impact on Ocular Health: A Systematic Review [PMID:41050032 | Systematic-review authors | Ophthalmic health literature | 2025]
Reviews pathways through which heat, air pollution, wildfire smoke, allergens, ultraviolet radiation, and environmental change can affect eye health.
97. Physical Determinants of Vitamin D Photosynthesis: A Review [doi:10.1002/jbm4.10460 | Neville JJ et al. | JBMR Plus | 2021]
Reviews latitude, season, time of day, skin exposure, pigmentation, and other factors affecting UV-driven vitamin D synthesis.
98. Low Vitamin D in Dark-Skinned Immigrants Is Mainly Due to Clothing Habits and Low UVR Exposure [doi:10.1007/s43630-021-00115-w | Datta P et al. | Photochemical & Photobiological Sciences | 2021]
Examines how clothing and ultraviolet exposure contribute to vitamin D status among dark-skinned immigrants living at northern latitudes.
99. A Revised Action Spectrum for Vitamin D Synthesis by Suberythemal UV Radiation Exposure in Humans In Vivo [doi:10.1073/pnas.2015867118 | Young AR et al. | Proceedings of the National Academy of Sciences | 2021]
Refines understanding of the ultraviolet wavelengths that drive vitamin D production in human skin.
100. Melanin Has a Small Inhibitory Effect on Cutaneous Vitamin D Synthesis [doi:10.1016/j.jid.2019.11.019 | Young AR et al. | Journal of Investigative Dermatology | 2020]
Investigates the role of skin pigmentation in vitamin D production following controlled ultraviolet exposure.
101. Do Extreme Summers Increase Blood Vitamin D Levels? [doi:10.1371/journal.pone.0242230 | Kraus FB et al. | PLOS ONE | 2020]
Investigates whether unusually sunny and hot summer conditions translate into measurable increases in population vitamin D status.
102. The Effect of Sunscreen on Vitamin D: A Review [Review:Neale-Sunscreen-VitD | Neale RE et al. | British Journal of Dermatology | 2019]
Evaluates observational and experimental evidence about sunscreen use, UV protection, and vitamin D status.
103. Sunscreen Photoprotection and Vitamin D Status [Review:Sunscreen-Vitamin-D | Passeron T et al. | British Journal of Dermatology | 2019]
Reviews whether routine sunscreen use substantially interferes with vitamin D production while protecting against excessive ultraviolet exposure.
104. Photoimmunology: How Ultraviolet Radiation Affects the Immune System [doi:10.1038/s41577-019-0185-9 | Bernard JJ et al. | Nature Reviews Immunology | 2019]
Explains mechanisms by which ultraviolet radiation alters local and systemic immune responses.
105. Exposure to Ultraviolet Radiation in the Modulation of Human Diseases [doi:10.1146/annurev-pathmechdis-012418-012809 | Hart PH et al. | Annual Review of Pathology | 2019]
Reviews both harmful and potentially beneficial biological effects of ultraviolet exposure, including immune regulation and vitamin D pathways.
106. Solar Ultraviolet Doses and Vitamin D in a Northern Mid-Latitude [PMID:27664761 | UV and vitamin-D research team | Photochemical & Photobiological Sciences | 2017]
Relates measured solar ultraviolet doses to seasonal opportunities for vitamin D production at northern mid-latitudes.
107. Potential Health Effects of Climatic Change: Effects of Increased Ultraviolet Radiation on Man [doi:10.1289/ehp.9196175 | Urbach F | Environmental Health Perspectives | 1991]
Provides an early assessment of possible human-health consequences from atmospheric change and increased ultraviolet radiation.
108. Influence of Season and Latitude on the Cutaneous Synthesis of Vitamin D3 [PMID:2839537 | Webb AR, Kline L and Holick MF | Journal of Clinical Endocrinology & Metabolism | 1988]
Demonstrates how seasonal and latitudinal variation in ultraviolet radiation can limit vitamin D synthesis in human skin.
Plants, Agriculture, Soils, and Carbon Cycling
109. Elevated Temperature and Enhanced UV-B Radiation Alter Soil Nitrogen Supply and Allocation Within Rice Plants in High-Altitude Paddy Fields [PMID:41388446 | Rice ecosystem research team | Environmental research literature | 2026]
Investigates combined warming and UV-B effects on rhizosphere nitrogen processes and rice growth at high elevation.
110. Significant Impact of UV Exposure on Litter Decomposition Across Diverse Climate Zones [PMID:40843774 | Grassland decomposition research team | Global Change Biology | 2025]
Finds substantial UV-driven acceleration of litter turnover across climatic gradients, especially in arid and high-altitude environments.
111. Potential of UV-B Radiation in Drought Stress Resilience: A Multidimensional Approach to Plant Adaptation [doi:10.1111/pce.14774 | Shoaib A et al. | Plant, Cell & Environment | 2024]
Reviews interacting physiological and biochemical plant responses to simultaneous UV-B and drought stress.
112. Divergent Roles of UV Exposure and Microclimatic Conditions in Decomposition of Standing and Soil-Surface Litter in a Semi-Arid Steppe [doi:10.1029/2023JG007934 | Yang et al. | Journal of Geophysical Research: Biogeosciences | 2024]
Separates the effects of ultraviolet exposure from temperature and moisture conditions influencing decomposition in a dryland ecosystem.
113. Climate, Litter Quality and Radiation Duration Jointly Regulate the Net Effect of UV on Litter Decomposition [doi:10.1016/j.scitotenv.2024.172122 | Li et al. | Science of the Total Environment | 2024]
Synthesizes how climate, litter chemistry, and exposure duration determine whether ultraviolet radiation accelerates or suppresses decomposition.
114. Ultraviolet-B Radiation in Relation to Agriculture in the Context of Climate Change: A Review [doi:10.1007/s42976-023-00375-5 | Liaqat W et al. | Journal of Plant Growth Regulation | 2023]
Reviews both harmful and regulatory effects of UV-B on crops and how those effects interact with climate stresses important to agriculture.
115. Climate Stressors on Growth, Yield, and Functional Biochemistry of Kale and Mustard [PMID:36294981 | Brassica climate-stress research team | Plants | 2022]
Tests elevated CO2, high temperature, UV-B radiation, and their combinations on two important leafy vegetable crops.
116. A Meta-Analysis of Interactive Effects of UV and Drought on Plants [doi:10.1111/pce.14221 | Plant ecology meta-analysis team | Plant, Cell & Environment | 2022]
Synthesizes experiments testing whether ultraviolet radiation and drought have additive, antagonistic, or synergistic effects on plant performance.
117. UV-B Strengthens Antioxidant Responses to Drought in Nicotiana benthamiana Leaves [doi:10.1016/j.plaphy.2018.09.014 | Mátai A, Nagy D and Hideg É | Plant Physiology and Biochemistry | 2019]
Shows that UV-B pre-exposure can modify antioxidant responses when plants subsequently experience drought.
118. Response of Juveniles of Seven Forest Tree Species to Simulated Climate-Change Stressors [PMID:31628563 | Pliūra A et al. | Science of the Total Environment | 2019]
Tests forest seedlings under combinations of heat, frost, drought, elevated UV, ozone, and elevated carbon dioxide.
119. Linkages Between Stratospheric Ozone, UV Radiation and Climate Change and Their Implications for Terrestrial Ecosystems [PMID:30810560 | Bornman JF et al. | Photochemical & Photobiological Sciences | 2019]
Explores how ozone, climate, and ultraviolet radiation interact to influence plants, terrestrial ecosystems, and ecosystem services.
120. Early Exposure to UV Radiation Overshadowed by Precipitation and Litter Quality as Drivers of Decomposition in the Northern Chihuahuan Desert [PMID:30716078 | Desert decomposition research team | Ecosystems literature | 2019]
Shows that UV exposure contributes to dryland litter breakdown but may be outweighed by precipitation and litter characteristics over longer periods.
121. Positive and Negative Effects of UV Irradiance Explain the Interaction of Litter Position and UV Exposure on Litter Decomposition [doi:10.1016/j.soilbio.2018.06.013 | Decomposition research team | Soil Biology and Biochemistry | 2018]
Demonstrates that ultraviolet radiation can both stimulate photodegradation and suppress microbial processes depending on litter position and exposure.
122. Effect of UV-B Radiation on Morphology, Phenolic Compound Production, Gene Expression, and Subsequent Drought Stress Responses in Chili Pepper [doi:10.1016/j.plaphy.2018.06.025 | Plant physiology research team | Plant Physiology and Biochemistry | 2018]
Examines whether UV-B-induced flavonoids and gene-expression changes alter chili-pepper responses to later drought.
123. Litter Decomposition in Hyper-Arid Deserts: Photodegradation Is Still Important [doi:10.1016/j.scitotenv.2017.05.213 | Desert ecosystem research team | Science of the Total Environment | 2017]
Shows that solar ultraviolet radiation can substantially accelerate plant-litter decomposition even in extremely arid environments.
124. Interactive Effects of CO2, Drought, and Ultraviolet-B Radiation on Maize Growth and Development [PMID:27113447 | Maize climate-stress research team | Journal of Photochemistry and Photobiology B | 2016]
Evaluates maize hybrids under simultaneous elevated CO2, restricted water availability, and enhanced UV-B.
125. Ultraviolet Photodegradation Facilitates Microbial Litter Decomposition in a Mediterranean Climate [doi:10.1890/14-1482.1 | Ecosystem decomposition research team | Ecology | 2015]
Shows that prior solar photodegradation can make plant litter more accessible to microbes and thereby influence carbon cycling in dry climates.
126. Interactive Effects of Supplemental UV-B and Temperature in European Aspen Seedlings [PMID:25766888 | Aspen climate-response research team | Environmental and Experimental Botany | 2015]
Shows that warming and enhanced UV-B can have opposing effects on growth, foliar chemistry, insects, pathogens, and endophytes.
127. Climate Change Conditions and UV-B Radiation Affect Grapevine Leaf Carbon Assimilation, Altering Fruit Ripening Rates [doi:10.1016/j.plantsci.2015.04.001 | Martínez-Lüscher J et al. | Plant Science | 2015]
Tests interacting effects of elevated CO2, warming, and UV-B radiation on grapevine physiology and fruit development.
128. Characterization of the Adaptive Response of Grapevine to UV-B Radiation Under Water Deficit Conditions [PMID:25617319 | Pascual I et al. | Plant Physiology and Biochemistry | 2015]
Examines photosynthesis, antioxidant responses, UV-screening compounds, and berry ripening under combined UV-B and drought.
129. Acclimation Mechanisms Elicited by Solar UV-B and Water Deficit in Field-Grown Grapevines [PMID:25885355 | Grapevine stress research team | Plant Physiology and Biochemistry | 2015]
Evaluates how natural UV-B and water deficit alter photosynthesis, antioxidant compounds, and secondary metabolism in grapevines.
130. Ultraviolet-B Radiation and Water Deficit Interact to Alter Flavonol and Anthocyanin Profiles in Grapevine Berries [PMID:25231967 | Martínez-Lüscher J et al. | Plant, Cell & Environment | 2014]
Links combined water stress and UV-B exposure with changes in berry pigments and expression of flavonoid biosynthesis genes.
131. Impact of UV-B on Drought- or Cadmium-Induced Changes in Membrane Lipids in Wheat [PMID:25062444 | Wheat stress research team | Plant Physiology and Biochemistry | 2014]
Demonstrates that UV-B can alter wheat responses differently depending on whether the accompanying stress is drought or heavy-metal exposure.
132. Effects of Enhanced UV-B Radiation on the Diversity and Activity of Soil Microorganisms of an Alpine Meadow Ecosystem [PMID:25149869 | Alpine-soil research team | Ecological research literature | 2014]
Documents changes in microbial community composition and activity under enhanced UV-B on the Qinghai-Tibetan Plateau.
133. Effect of Elevated CO2, O3, and UV Radiation on Soils [PMID:24688424 | Soil global-change review authors | Ecological research literature | 2014]
Reviews how atmospheric carbon dioxide, ozone, and ultraviolet radiation alter soil carbon, nitrogen, microbes, and plant-soil interactions.
134. Response of Trifolium repens to UV-B Radiation: Morphological Links to Plant Productivity and Water Availability [doi:10.1111/j.1438-8677.2011.00458.x | Hofmann RW et al. | Plant Biology | 2012]
Investigates interactions between ultraviolet-B exposure, drought, morphology, and productivity in white clover.
135. Above- and Below-Ground Responses of Calamagrostis purpurea to UV-B Radiation and Elevated CO2 Under Phosphorus Limitation [doi:10.1111/j.1399-3054.2012.01595.x | Bussell JS et al. | Physiologia Plantarum | 2012]
Investigates interactions among UV-B, atmospheric CO2, nutrient limitation, plant growth, roots, and rhizosphere chemistry.
136. Effects of Solar Ultraviolet Radiation on Terrestrial Ecosystems: Patterns, Mechanisms, and Interactions with Climate Change [doi:10.1039/C0PP90035D | Ballaré CL et al. | Photochemical & Photobiological Sciences | 2011]
Examines plant and ecosystem responses to UV radiation and interactions with warming, drought, precipitation, and other climate-related factors.
137. Dark-Leaved Willow Is Resistant to Three-Factor Elevated CO2, Temperature and UV-B Climate Change [PMID:21175637 | Willow climate-response research team | Physiologia Plantarum | 2011]
Examines growth and secondary chemistry of willow clones exposed simultaneously to carbon dioxide, warming, and enhanced UV-B.
138. Terrestrial Ecosystems, Increased Solar Ultraviolet Radiation, and Interactions with Other Climate Change Factors [PMID:17344961 | Caldwell MM et al. | Photochemical & Photobiological Sciences | 2007]
Discusses how UV-B interacts with temperature, water availability, atmospheric CO2, and other environmental changes affecting terrestrial ecosystems.
139. Interactive Effects of Solar UV Radiation and Climate Change on Biogeochemical Cycling [doi:10.1039/B700021A | Zepp RG et al. | Photochemical & Photobiological Sciences | 2007]
Examines how ultraviolet radiation and climate variables jointly alter carbon, nitrogen, sulfur, and other biogeochemical cycles.
140. Plant Litter Decomposition in a Semi-Arid Ecosystem Controlled by Photodegradation [doi:10.1038/nature05038 | Austin AT and Vivanco L | Nature | 2006]
Demonstrates that solar radiation can be a dominant control on litter decomposition and carbon turnover in dry ecosystems.
141. Responses to Projected Changes in Climate and UV-B at the Species Level [PMID:15573570 | Callaghan TV et al. | Ambio | 2004]
Reviews Arctic species responses to warming, moisture changes, nutrients, carbon dioxide, and ultraviolet-B radiation.
142. Leaf and Canopy Photosynthetic Characteristics of Cotton Under Elevated CO2 Concentration and UV-B Radiation [doi:10.1078/0176-1617-01229 | Zhao D et al. | Journal of Plant Physiology | 2004]
Examines combined effects of elevated atmospheric carbon dioxide and UV-B radiation on cotton photosynthesis and canopy development.
143. Terrestrial Ecosystems, Increased Solar Ultraviolet Radiation and Interactions with Other Climatic Change Factors [doi:10.1039/B211159B | Caldwell MM et al. | Photochemical & Photobiological Sciences | 2003]
Provides an earlier synthesis of UV-B effects on plants and soils in combination with changing climate conditions.
144. Field Crop Responses to Ultraviolet-B Radiation: A Review [doi:10.1016/j.agrformet.2003.08.015 | Kakani VG et al. | Agricultural and Forest Meteorology | 2003]
Reviews UV-B effects on crop growth, morphology, photosynthesis, development, yield, and agricultural productivity.
145. Growth and Reproduction of Antarctic Vascular Plants in Response to Warming and UV Radiation Reductions in the Field [doi:10.1007/s004420050757 | Day TA et al. | Oecologia | 1999]
Uses field manipulations to examine how Antarctic plants respond simultaneously to warming and changes in ultraviolet radiation.
146. Growth, Phenology and Reproduction of an Arid-Environment Winter Ephemeral in Response to Combined Increases in CO2 and UV-B [doi:10.1016/S0269-7491(96)00116-9 | Wand SJ, Midgley GF and Musil CF | Environmental Pollution | 1996]
Tests combined atmospheric carbon dioxide and UV-B effects on development and reproduction in a dryland plant.
147. CO2 Enhancement of Growth and Photosynthesis in Rice: Modification by Increased Ultraviolet-B Radiation [doi:10.1104/pp.99.2.473 | Ziska LH and Teramura AH | Plant Physiology | 1992]
Demonstrates that enhanced UV-B can modify crop responses to elevated atmospheric carbon dioxide.
Lakes, Oceans, and Aquatic Ecosystems
148. Impact of Acidification and Ultraviolet Radiation on the Physiology of Ulva fasciata [doi:10.1016/j.marenvres.2025.107776 | Ozen M and Yildiz G | Marine Environmental Research | 2026]
Examines combined effects of lower seawater pH and ultraviolet radiation on the physiology of a widespread marine green alga.
149. Interactive Effects of Elevated Atmospheric CO2 and UV-B Radiation on the Marine Diatom Skeletonema pseudocostatum [PMID:39955863 | Marine phytoplankton research team | Marine environmental research | 2025]
Tests how elevated carbon dioxide and ultraviolet-B radiation interact across multiple biological levels in a marine diatom.
150. Cycles of Solar Ultraviolet Radiation Favor Periodic Expansions of Cyanobacterial Blooms in Global Lakes [doi:10.1016/j.watres.2024.121471 | Yang L et al. | Water Research | 2024]
Links long-term fluctuations in solar ultraviolet radiation with the timing and extent of cyanobacterial blooms.
151. Warming Modulates the Photosynthetic Performance of Thalassiosira pseudonana in Response to UV Radiation [PMID:38029218 | Marine phytoplankton research team | Marine Environmental Research | 2023]
Shows that warmer conditions can alter photodamage, repair, and antioxidant responses to UV exposure in a marine diatom.
152. Warming Exacerbates the Impacts of Ultraviolet Radiation in Temperate Diatoms but Alleviates the Effect on Polar Species [PMID:37528525 | Diatom climate-response research team | Marine Environmental Research | 2023]
Demonstrates contrasting UV–temperature interactions among temperate and polar marine diatoms.
153. The Response of Aquatic Ecosystems to the Interactive Effects of Stratospheric Ozone Depletion, UV Radiation, and Climate Change [doi:10.1007/s43630-023-00370-z | Neale PJ et al. | Photochemical & Photobiological Sciences | 2023]
Reviews how climate, ozone, UV radiation, warming, stratification, dissolved organic matter, and other stressors affect aquatic ecosystems.
154. Solar Radiation, Temperature and Reproductive Biology of the Coral Lobactis scutaria in a Changing Climate [Article:Lobactis-Solar-Temperature | Coral research team | Scientific Reports | 2023]
Examines how solar radiation and temperature influence coral reproductive biology under environmental conditions relevant to climate change.
155. Short-Term Effects of Climate Change on Planktonic Heterotrophic Prokaryotes in a Temperate Coastal Lagoon [doi:10.3390/microorganisms11102559 | Barbosa AB et al. | Microorganisms | 2023]
Tests the combined effects of warming, elevated carbon dioxide, and ultraviolet radiation on natural marine microbial communities.
156. Combined Effects of Organic UV Filters and Elevated Seawater Temperature on Coral Bleaching [PMID:36907390 | Coral ecotoxicology research team | Marine Pollution Bulletin literature | 2023]
Investigates whether chemical UV-filter pollution and elevated seawater temperature interact to increase physiological stress in corals.
157. The MicroClimate Screen: A Microscale Climate Exposure System for Assessing the Effect of CO2, Temperature and UV on Marine Microalgae [PMID:35728490 | Tollefsen KE et al. | Marine Environmental Research | 2022]
Describes an experimental system that combines carbon dioxide, warming, and ultraviolet exposure to investigate multiple climate stressors on microalgae.
158. Penetration of UV-B Radiation in Oligotrophic Regions of the Oceans During the Malaspina 2010 Expedition [doi:10.1029/2021JC017654 | Overmans S et al. | Journal of Geophysical Research: Oceans | 2022]
Quantifies how deeply UV-B penetrates clear oligotrophic ocean waters, identifying environments where marine organisms receive substantial exposure.
159. Growth, DMS and DMSP Production in Emiliania huxleyi Under Elevated CO2 and UV Radiation [PMID:34875264 | Marine biogeochemistry research team | Science of the Total Environment | 2022]
Examines how ocean acidification and ultraviolet radiation affect production of sulfur compounds involved in ocean-atmosphere climate interactions.
160. Additive Impacts of Ocean Acidification and Ambient Ultraviolet Radiation Threaten Calcifying Marine Primary Producers [PMID:34800448 | Marine global-change research team | Science of the Total Environment | 2022]
Meta-analyzes hundreds of experiments involving ocean acidification and ultraviolet radiation in marine primary producers.
161. Increasing Temperature Counteracts the Negative Effect of UV Radiation on Growth and Photosynthetic Efficiency of Cyanobacteria [doi:10.1111/php.13377 | Noyma NP et al. | Photochemistry and Photobiology | 2021]
Shows that warming can partially offset UV inhibition in two bloom-forming cyanobacterial species.
162. Effects of Climate Change Factors on Marine Macroalgae: A Review [PMID:34119047 | Marine-algae review authors | Marine Environmental Research | 2021]
Reviews how warming, acidification, ultraviolet radiation, nutrient conditions, and other environmental changes interact to affect marine macroalgae.
163. Unraveling the Seasonality of UV Exposure in Reef Waters of a Rapidly Warming Subtropical Sea [doi:10.3389/fmars.2020.00111 | Overmans S and Agustí S | Frontiers in Marine Science | 2020]
Measures seasonal underwater UV exposure in coral-reef waters and considers the implications of rapid ocean warming.
164. Effects of Ultraviolet-B Radiation on Physiology, Immune Function and Survival Are Dependent on Temperature [doi:10.1093/conphys/coaa002 | Alton LA et al. | Conservation Physiology | 2020]
Shows that temperature can strongly modify UV-B effects on amphibian growth, survival, inflammation, and immune function.
165. Decreasing Underwater Ultraviolet Radiation Exposure Strongly Driven by Increasing Ultraviolet Attenuation in Lakes in Eastern and Southwest China [PMID:32325604 | Lake-monitoring research team | Environmental research literature | 2020]
Documents decreasing underwater UV exposure associated with stronger attenuation of ultraviolet radiation in Chinese lakes.
166. Biogeochemical and Photobiological Responses of Subarctic Lakes to UV Radiation [PMID:32652465 | Subarctic lake research team | Science of the Total Environment | 2020]
Shows UV-driven changes in dissolved organic matter, algal pigments, microbial processes, and photoprotective responses in northern lakes.
167. The Interactive Effects of Stratospheric Ozone Depletion, UV Radiation, and Climate Change on Aquatic Ecosystems [doi:10.1039/C8PP90062K | Williamson CE et al. | Photochemical & Photobiological Sciences | 2019]
Reviews combined effects of climate and ultraviolet radiation on lakes, oceans, aquatic organisms, food webs, and biogeochemical cycling.
168. Effects of Ocean Acidification and Solar Ultraviolet Radiation on Physiology and Toxicity of Karenia mikimotoi [PMID:30638492 | Marine harmful-algae research team | Harmful Algae | 2019]
Tests how elevated carbon dioxide and solar UV influence growth, pigmentation, and toxicity of a harmful marine dinoflagellate.
169. Differential Photosynthetic Response of Ulva linza to Ultraviolet Radiation Under Short- and Long-Term Ocean Acidification [PMID:30636002 | Macroalgal physiology research team | Photochemical & Photobiological Sciences | 2019]
Shows that duration of acidification exposure changes the way a green macroalga responds to ultraviolet radiation.
170. Effects of Ultraviolet Radiation and Nutrient Level on Pocillopora damicornis Following Thermal Stress [PMID:30356284 | Coral stress research team | Marine Environmental Research | 2018]
Examines interacting effects of seawater warming, UV radiation, and nutrients on coral photosynthesis, calcification, and organic-matter release.
171. Effects of Temperature and UVR on Organic Matter Fluxes and Metabolic Activity of Acropora muricata [PMID:28811302 | Coral physiology research team | Frontiers in Marine Science literature | 2017]
Shows that UV exposure can exacerbate warming-related coral bleaching and influence coral interactions with surrounding seawater.
172. Current Browning of Surface Waters Will Be Further Promoted by Wetter Climate [doi:10.1021/acs.estlett.6b00396 | de Wit HA et al. | Environmental Science & Technology Letters | 2016]
Shows how increased precipitation can raise dissolved organic matter and darken inland waters, potentially reducing underwater UV penetration.
173. Solar UV Irradiances Modulate Effects of Ocean Acidification on the Coccolithophorid Emiliania huxleyi [doi:10.1111/php.12363 | Xu K and Gao K | Photochemistry and Photobiology | 2015]
Demonstrates that ultraviolet radiation can modify the biological effects of elevated carbon dioxide on a globally important marine calcifier.
174. Ecological Consequences of Long-Term Browning in Lakes [Article:Lake-Browning-2015 | Aquatic ecosystem researchers | Scientific literature | 2015]
Reviews how increasing dissolved organic matter changes light and UV penetration, thermal structure, food webs, and ecosystem productivity.
175. Tropical High-Altitude Andean Lakes Attenuate UV-A More Strongly Than Typical Temperate Alpine Lakes [PMID:23722356 | Andean lake research team | Photochemical & Photobiological Sciences | 2013]
Studies UV transparency in tropical alpine lakes and discusses its potential as an indicator of environmental and climatic change.
176. Ocean Acidification Alters the Photosynthetic Responses of a Coccolithophorid to Fluctuating Ultraviolet and Visible Radiation [Article:Coccolithophore-UV-OA | Gao K et al. | Marine Environmental Research | 2013]
Demonstrates that ocean acidification can modify the way a marine calcifying phytoplankton species responds to changing ultraviolet and visible radiation.
177. Modeling the Photo-Oxidation of Dissolved Organic Matter by Ultraviolet Radiation in Freshwater Lakes: Implications for Mercury Bioavailability [doi:10.1016/j.chemosphere.2012.03.073 | Haverstock S et al. | Chemosphere | 2012]
Models UV-driven dissolved-organic-matter photochemistry and its potential effects on mercury cycling and bioavailability in lakes.
178. UV Radiation and Freshwater Zooplankton: Damage, Protection and Recovery [PMID:21516254 | Zooplankton UV research team | Freshwater Biology literature | 2011]
Reviews mechanisms through which freshwater zooplankton are harmed by, protected from, and recover from ultraviolet radiation.
179. Effects of Solar UV Radiation on Aquatic Ecosystems and Interactions with Climate Change [PMID:17344962 | Häder DP et al. | Photochemical & Photobiological Sciences | 2007]
Reviews UV effects on aquatic organisms and how temperature, stratification, water chemistry, and climate change can modify exposure.
180. Photoacclimation to Long-Term Ultraviolet Radiation Exposure of Natural Sub-Antarctic Phytoplankton Communities [PMID:16724874 | Sub-Antarctic phytoplankton research team | Marine Ecology Progress Series | 2006]
Shows that vertical mixing and community shifts can substantially alter phytoplankton responses to prolonged ultraviolet exposure.
181. Effects of Ultraviolet Radiation and Contaminant-Related Stressors on Arctic Freshwater Ecosystems [PMID:17256643 | Wrona FJ et al. | Ambio | 2006]
Reviews interactions among shrinking ice cover, ultraviolet radiation, contaminants, ecosystem productivity, and food-web processes in Arctic waters.
182. Cumulative Effects of Climate Warming and Other Human Activities on Freshwaters of Arctic and Subarctic North America [doi:10.1579/0044-7447(2006)35[160:CEOCWA]2.0.CO;2 | Schindler DW and Smol JP | Ambio | 2006]
Reviews interacting effects of warming, changing ice cover, hydrology, contaminants, and ultraviolet radiation on northern freshwater ecosystems.
183. Mycosporine-Like Amino Acids in Antarctic Sea-Ice Algae and Their Response to UV-B Radiation [doi:10.1515/znc-2002-5-612 | Ryan KG et al. | Zeitschrift für Naturforschung C | 2002]
Investigates natural UV-screening compounds in Antarctic sea-ice algae exposed to different ultraviolet regimes.
184. Effect of Climate Change Relative to Ozone Depletion on UV Exposure in Subarctic Lakes [doi:10.1038/35006616 | Aquatic UV research team | Nature | 2000]
Shows that climate-driven changes in dissolved organic matter can have a major influence on underwater UV exposure in subarctic lakes.
Amphibians, Fish, and UV-Sensitive Wildlife
185. UVB Radiation and Amphibian Resilience: Skin Color, Immune Suppression and Oxidative Stress in Rana kukunoris [doi:10.1016/j.ecoenv.2025.118075 | Amphibian ecotoxicology research team | Ecotoxicology and Environmental Safety | 2025]
Examines physiological and pigmentation responses that may influence amphibian resilience to ultraviolet-B radiation.
186. Potential Ecotoxicological Effects of Global Change on Organisms Inhabiting High-Mountain Lakes in the Alps [PMID:40185005 | Alpine lake review authors | Environmental research literature | 2025]
Reviews interacting impacts of warming, earlier snowmelt, glacier retreat, permafrost thaw, pollution, and increased ultraviolet exposure on alpine lake organisms.
187. Extended Ozone Depletion and Reduced Snow and Ice Cover—Consequences for Antarctic Biota [doi:10.1111/gcb.17283 | Robinson SA et al. | Global Change Biology | 2024]
Examines how persistent ozone depletion combined with declining protective snow and ice can increase Antarctic organism exposure to UV-B.
188. Does a Moderately Warming Climate Compensate for Negative Effects of UV-B Radiation on Amphibians at High Altitudes? [doi:10.3390/biology11060838 | Amphibian research team | Biology | 2022]
Tests whether modest warming alters the harmful developmental and physiological effects of UV-B exposure in the high-altitude frog Rana kukunoris.
189. A Natural Experiment Identifies an Impending Ecological Trap for a Neotropical Amphibian in Response to Extreme Weather Events [PMID:35475175 | Amphibian ecology research team | Global Change Biology | 2022]
Shows that storm-created canopy gaps can expose frogs to much greater UV-B despite their normal behavioral avoidance of high-UV locations.
190. Drivers of Amphibian Declines: Effects of Ultraviolet Radiation and Interactions with Other Environmental Factors [doi:10.1186/s40665-017-0034-9 | Alton LA and Franklin CE | Climate Change Responses | 2017]
Reviews UV radiation as one of several interacting environmental pressures affecting amphibian survival and population trends.
191. Ultraviolet B Radiation Alters Movement and Thermal Selection of Zebrafish [PMID:27531156 | Fish ecophysiology research team | Journal of Experimental Biology | 2016]
Shows that UV-B damage interacts with temperature to alter swimming performance and preferred thermal habitat.
192. Additive Effects of Enhanced Ambient UV-B Radiation and Increased Temperature on Juvenile Atlantic Salmon [PMID:20883792 | Fisheries research team | Fish & Shellfish Immunology | 2011]
Finds combined effects of elevated temperature and ultraviolet-B on salmon immune function, growth, and physiological condition.
193. Global Increases in UV-B Radiation: Potential Impacts on Amphibian Development and Metamorphosis [PMID:18954263 | Amphibian UV research team | Physiological and Biochemical Zoology literature | 2008]
Reviews evidence that elevated ultraviolet-B exposure can affect amphibian embryos, larvae, development, and metamorphosis.
194. Effects of Climate Change and UV Radiation on Fisheries for Arctic Freshwater and Anadromous Species [doi:10.1579/0044-7447(2006)35[402:EOCCAU]2.0.CO;2 | Reist JD et al. | Ambio | 2006]
Reviews how warming and changing ultraviolet exposure could affect fish production, quality, distribution, and northern fisheries.
195. Past Changes in Arctic Terrestrial Ecosystems, Climate and UV Radiation [doi:10.1579/0044-7447-33.7.398 | Callaghan TV et al. | Ambio | 2004]
Places modern Arctic UV and climate changes in the context of long-term climatic and ecological variability.
196. Complex Causes of Amphibian Population Declines [Article:Nature-410-681 | Kiesecker JM, Blaustein AR and Belden LK | Nature | 2001]
Demonstrates how disease, environmental conditions, and ultraviolet exposure can interact rather than acting as isolated causes of amphibian decline.
197. Combined Effects of Sublethal UVA Irradiation and Elevated Temperature on Convict-Cichlid Fish [PMID:8934763 | Fish photobiology research team | Journal of Photochemistry and Photobiology B | 1996]
Demonstrates greatly increased physiological stress and mortality when elevated temperature occurs together with chronic UVA exposure.
Materials and the Built Environment
198. Plastics in the Environment in the Context of UV Radiation, Climate Change, and the Montreal Protocol: UNEP EEAP Update 2023 [doi:10.1007/s43630-024-00552-3 | Jansen MAK et al. | Photochemical & Photobiological Sciences | 2024]
Reviews how ultraviolet radiation, heat, climate conditions, and atmospheric changes influence plastic weathering, degradation, fragmentation, and environmental impacts.
199. Effects of UV Radiation on Natural and Synthetic Materials [doi:10.1007/s43630-023-00377-6 | Andrady AL et al. | Photochemical & Photobiological Sciences | 2023]
Reviews how solar ultraviolet radiation interacts with temperature and climate to weather plastics, wood, coatings, textiles, and other natural and synthetic materials.
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