Interventions for treating people with symptoms of bladder pain syndrome : A network meta-analysis

Funding Information: • National Institute for Health Research (NIHR), UK. This review was commissioned by the NIHR Systematic Reviews Programme as project number 16/59/01. • National Institute for Health Research (NIHR), UK. This project was supported by the National Institute for Health Research (NIHR), via Cochrane Infrastructure funding to Cochrane Incontinence. The views and opinions expressed therein are those of the review authors and do not necessarily reflect those of the Systematic Reviews Programme, NIHR, National Health Service or the Department of Health. The NIHR is the largest single funder of Cochrane Incontinence.Peer reviewedPublisher PD

Global assessment of marine plastic exposure risk for oceanic birds

Plastic pollution is distributed patchily around the world’s oceans. Likewise, marine organisms that are vulnerable to plastic ingestion or entanglement have uneven distributions. Understanding where wildlife encounters plastic is crucial for targeting research and mitigation. Oceanic seabirds, particularly petrels, frequently ingest plastic, are highly threatened, and cover vast distances during foraging and migration. However, the spatial overlap between petrels and plastics is poorly understood. Here we combine marine plastic density estimates with individual movement data for 7137 birds of 77 petrel species to estimate relative exposure risk. We identify high exposure risk areas in the Mediterranean and Black seas, and the northeast Pacific, northwest Pacific, South Atlantic and southwest Indian oceans. Plastic exposure risk varies greatly among species and populations, and between breeding and non-breeding seasons. Exposure risk is disproportionately high for Threatened species. Outside the Mediterranean and Black seas, exposure risk is highest in the high seas and Exclusive Economic Zones (EEZs) of the USA, Japan, and the UK. Birds generally had higher plastic exposure risk outside the EEZ of the country where they breed. We identify conservation and research priorities, and highlight that international collaboration is key to addressing the impacts of marine plastic on wide-ranging species

Global assessment of marine plastic exposure risk for oceanic birds

Plastic pollution is distributed patchily around the world's oceans. Likewise, marine organisms that are vulnerable to plastic ingestion or entanglement have uneven distributions. Understanding where wildlife encounters plastic is crucial for targeting research and mitigation. Oceanic seabirds, particularly petrels, frequently ingest plastic, are highly threatened, and cover vast distances during foraging and migration. However, the spatial overlap between petrels and plastics is poorly understood. Here we combine marine plastic density estimates with individual movement data for 7137 birds of 77 petrel species to estimate relative exposure risk. We identify high exposure risk areas in the Mediterranean and Black seas, and the northeast Pacific, northwest Pacific, South Atlantic and southwest Indian oceans. Plastic exposure risk varies greatly among species and populations, and between breeding and non-breeding seasons. Exposure risk is disproportionately high for Threatened species. Outside the Mediterranean and Black seas, exposure risk is highest in the high seas and Exclusive Economic Zones (EEZs) of the USA, Japan, and the UK. Birds generally had higher plastic exposure risk outside the EEZ of the country where they breed. We identify conservation and research priorities, and highlight that international collaboration is key to addressing the impacts of marine plastic on wide-ranging species.B.L.C., C.H., and A.M. were funded by the Cambridge Conservation Initiative’s Collaborative Fund sponsored by the Prince Albert II of Monaco Foundation. E.J.P. was supported by the Natural Environment Research Council C-CLEAR doctoral training programme (Grant no. NE/S007164/1). We are grateful to all those who assisted with the collection and curation of tracking data. Further details are provided in the Supplementary Acknowledgements. Any use of trade, firm, or product names is for descriptive purposes only and does not imply endorsement by the U.S. Government.Peer reviewe

Global assessment of marine plastic exposure risk for oceanic birds

Plastic pollution is distributed patchily around the world’s oceans. Likewise, marine organisms that are vulnerable to plastic ingestion or entanglement have uneven distributions. Understanding where wildlife encounters plastic is crucial for targeting research and mitigation. Oceanic seabirds, particularly petrels, frequently ingest plastic, are highly threatened, and cover vast distances during foraging and migration. However, the spatial overlap between petrels and plastics is poorly understood. Here we combine marine plastic density estimates with individual movement data for 7137 birds of 77 petrel species to estimate relative exposure risk. We identify high exposure risk areas in the Mediterranean and Black seas, and the northeast Pacific, northwest Pacific, South Atlantic and southwest Indian oceans. Plastic exposure risk varies greatly among species and populations, and between breeding and non-breeding seasons. Exposure risk is disproportionately high for Threatened species. Outside the Mediterranean and Black seas, exposure risk is highest in the high seas and Exclusive Economic Zones (EEZs) of the USA, Japan, and the UK. Birds generally had higher plastic exposure risk outside the EEZ of the country where they breed. We identify conservation and research priorities, and highlight that international collaboration is key to addressing the impacts of marine plastic on wide-ranging species

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations

High-resolution Global Climate Modeling of Saturn's and Jupiter's tropospheric and stratospheric circulations

International audienceWe use unprecedented numerical modeling to study and understand atmospheric winds in our Solar System's gas giants Saturn and Jupiter, inspired by measurements obtained by orbital missions (Cassini, Juno) and ground-based observations