The effects of weather and climate changes on the timing of autumn migration of the common crane (Grus grus) in the north of Moscow Region

Волков, С. В.; Grinchenko, O. S.; Свиридова, Т. В.

doi:10.1134/s1062359016110170

Cited by 13 publications

(7 citation statements)

References 17 publications

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“…In areas with poor drainage or level, due to the excess of drainage and rainfall, the soil surface becomes saturated with water and this state of land is called waterlogging. Every year, the land area of the world experienced by waterlogging is about 10% [31]. The following are the two conditions: one is anoxic (oxygen absent: energy gain by fermentation is the only condition) and the other is hypoxic (low oxygen concentration: mitochondrial respiration is reduced and the process of fermentation takes place) because the microbial activity and plant activity use maximum amount of oxygen.…”

Section: Waterlogging Stressmentioning

confidence: 99%

Abiotic Stress Tolerance in Cotton

Hassan¹,

Ijaz²,

Sattar³

et al. 2020

Advances in Cotton Research

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Cotton (Gossypium hirsutum L.) is a vital fiber crop that is being cultivated under diverse climatic conditions across the globe. The demand for cotton and its by-products is increasing day by day due to more consumption of this fiber in the textile industry and the utilization of cotton seed as a source of edible oil. However, the average seed cotton yield in the world is below that of the potential yield of cultivars. The factors responsible for low yield includes shortage of approved seed, pest and disease attack, weed infestation, unwise use of nutrients, and the incidence of abiotic stresses (including drought, heat, and salinity). Among these, the abiotic stresses are a single major factor, which is responsible for reducing the yield now and will affect the productivity of cotton in future. In this scenario, it is necessary to adopt ways to improve the tolerance of cotton against abiotic stresses. The strategies for improving tolerance against abiotic stresses may include the wise use of macroand micronutrients, the use of osmoprotectants, the use of arbuscular mycorrhizal fungi, and the plant-growth promoting rhizobacteria.

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Section: Waterlogging Stressmentioning

confidence: 99%

Abiotic Stress Tolerance in Cotton

Hassan¹,

Ijaz²,

Sattar³

et al. 2020

Advances in Cotton Research

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“…Even though these two flocks exhibited different stopover patterns on the horizontal, our results showed that they almost all selected the long-term stopover sites at a ground elevation close to their breeding sites (Da Qaidam: 3157.14 ± 9.73 m and Chaka: 3074.22 ± 11.37 m). These demonstrate that the decision to stopover and the duration in stopover sites may be associated with food availability and weather conditions at the stopover sites (Alonso et al, 1990a(Alonso et al, , 1990b(Alonso et al, , 1994Swanberg, 1987;Volkov et al, 2016), as well as refueling needs for the subsequent altitude ascent and prolonged flights.…”

Section: Discussionmentioning

confidence: 94%

Autumn migration of black‐necked crane (Grus nigricollis) on the Qinghai‐Tibetan and Yunnan‐Guizhou plateaus

Pu,

Guo

2023

Ecology and Evolution

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Despite previous research efforts, the majority migration routes of the black‐necked cranes (Grus nigricollis) have remained veiled. In this study, we utilized satellite telemetry data from 45 cranes between 2015 and 2021 to unveil critical insights. Our results revealed 11 distinct autumn migration routes and one sedentary flock, of which eight routes and the sedentary flock were previously undocumented. Our findings highlighted the remarkable diversity in the migration routes of black‐necked cranes, especially in terms of migration orientations, spatial–temporal patterns, and altitudinal movement patterns. Cranes breeding on the eastern, northern, and central Qinghai‐Tibetan Plateau migrated southward, while those on the northern slopes of the Himalayas migrated eastward, westward, northward, or opted to remain sedentary. Moreover, we expanded the known range of migration distances to 84–1520 km at both ends (excluding sedentary individuals) and identified two long‐term (Da Qaidam and Chaka) and one short‐term (Gyatong grassland) stopover sites. Furthermore, our study revealed that the breeding colonies in the Qilian Mountains on the northeastern Qinghai‐Tibetan Plateau utilized long‐term stopover sites before embarking on significant altitude ascent, while other flocks displayed more urgent migration patterns, preferring to roost only at night. By unveiling the near‐complete autumn migration routes of black‐necked cranes, our research has contributed to discovering the critical habitats and connectivity among various breeding colonies, which is instrumental in developing effective seasonal conservation plans.

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“…However, a temperature increase at the breeding grounds could favor a delay of the autumn migration (e.g. Volkov et al 2016).…”

Section: Discussionmentioning

confidence: 99%

“…We proposed the following hypotheses. First, based on the correlation found between increasing air temperatures and delayed autumn migration in northern Europe (Prange 2012, Volkov et al 2016, and on similar effects of climatic predictors on spring and autumn migration phenology in eastern European stopover sites (Végvári andKovacs 2012, Végvári 2015), we hypothesized that an increase in temperature, the most used indicator of climate change, could have detectable effects on the timing of Common Crane migration in southwestern Europe. Second, we hypothesized that low precipitation can modify the staging and wintering patterns of Common Cranes.…”

Section: Introductionmentioning

confidence: 99%

Shifts in crane migration phenology associated with climate change in southwestern Europe

Orellana-Macías¹,

Bautista²,

Merchán³

et al. 2020

ACE

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Gallocanta lagoon, NE Spain, is one of the main stopover and wintering areas of Common Cranes (Grus grus) migrating through Western Europe. We investigated how the water level of the lagoon where cranes roost, precipitation, and air temperature might have influenced the species' migration and wintering patterns in this area between 1973 and 2018. Over the study period, the mean annual air temperature increased at 0.3 °C per decade. Simultaneously, cranes advanced the spring peak migration date at a rate of 0.37 days/year. Water level and rainfall during spring were also positively correlated with the date of spring migration peak. Because cranes need shallow water to roost, and must drink water from streams because the lagoon is saline, these correlations suggest that low water levels at roosting sites and drinking water shortage may have further accelerated the onset of northward spring migration. The water level was also positively correlated with peak crane numbers in autumn, suggesting that the roosting capacity of the lagoon may limit numbers of cranes that can stopover in the area. We conclude that global warming, variations in the water level of the lagoon, and precipitation during spring have determined changes in the use of Gallocanta as a staging and wintering area by Common Cranes during the last decades. Because climatic models predict further decreases in rainfall and higher temperatures in the area, further advances in the migration phenology of cranes should be expected, which might also have implications for the conservation and management of the species and the study area. Modification de la phénologie de migration des grues associé aux changements climatiques dans le sud-ouest de l'Europe RÉSUMÉ. La lagune Gallocanta, dans le nord-est de l'Espagne, est l'une des principales haltes et aires d'hivernage de la Grue cendrée (Grus grus) qui migre dans l'ouest de l'Europe. Nous avons examiné de quelle façon le niveau d'eau de la lagune où les grues dorment, les précipitations et la température de l'air ont pu influer sur les tendances de migration et d'hivernage de l'espèce dans ce secteur entre 1973 et 2018. Au cours de cette période, la température moyenne annuelle de l'air a augmenté de 0,3 °C par décennie. Simultanément, les grues ont devancé la date de leur pic migratoire printanier au taux de 0.37 jour/année. Le niveau d'eau et les précipitations au printemps ont aussi été positivement corrélés avec la date du pic migratoire printanier. Parce que les grues ont besoin d'eau peu profonde pour y dormir et qu'elles doivent boire de l'eau à partir de ruisseaux étant donné que la lagune est salée, ces corrélations indiquent que de faibles niveaux d'eau aux dortoirs et un manque d'eau potable ont peut-être accéléré encore plus l'initiation de la migration printanière vers le nord. Le niveau d'eau était aussi corrélé positivement avec le nombre maximum de grues en automne, laissant entrevoir que la capacité de rassemblement à la lagune limite sans doute le nombre de grues qui peut s'arrêter dans le sect...

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The effects of weather and climate changes on the timing of autumn migration of the common crane (Grus grus) in the north of Moscow Region

Cited by 13 publications

References 17 publications

Abiotic Stress Tolerance in Cotton

Abiotic Stress Tolerance in Cotton

Autumn migration of black‐necked crane (Grus nigricollis) on the Qinghai‐Tibetan and Yunnan‐Guizhou plateaus

Shifts in crane migration phenology associated with climate change in southwestern Europe

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