Our study birds, with different 10 quantiles in different colors, from green (close) to red (far). Extra-distance was added to the points in the MedChemExpress AT-877 Mediterranean Sea to account for the flight around Spain. Distances for each quantile are in the pie chart (unit: 102 km). (b) Average monthly overlap ( ) of the male and female 70 occupancy kernels throughout the year (mean ?SE). The overwintering months are represented with open circles and the breeding months with gray circles. (c ) Occupancy kernels of puffins during migration for females (green, left) and males (blue, right) in September/October (c ), FTY720 site December (e ), and February (g ). Different shades represent different levels of occupancy, from 10 (darkest) to 70 (lightest). The colony is indicated with a star.to forage more to catch enough prey), or birds attempting to build more reserves. The lack of correlation between foraging effort and individual breeding success suggests that it is not how much birds forage, but where they forage (and perhaps what they prey on), which affects how successful they are during the following breeding season. Interestingly, birds only visited the Mediterranean Sea, usually of low productivity, from January to March, which corresponds32 18-0-JulSepNovJanMarMay(d) September/October-males10 30 9010 3070 5070 50(f) December(h) Februaryto the occurrence of a large phytoplankton bloom. A combination fpsyg.2015.01413 of wind conditions, winter mixing, and coastal upwelling in the north-western part increases nutrient availability (Siokou-Frangou et al. 2010), resulting in higher productivity (Lazzari et al. 2012). This could explain why these birds foraged more than birds anywhere else in the late winter and had a higher breeding success. However, we still know very little about the winter diet of adultBehavioral EcologyTable 1 (a) Total distance covered and DEE for each type of migration (mean ?SE and adjusted P values for pairwise comparison). (b) Proportions of daytime spent foraging, flying, and sitting on the surface for each type of migration route (mean ?SE and P values from linear mixed models with binomial family) (a) Distance covered (km) Atlantic + Mediterranean <0.001 <0.001 -- DEE (kJ/day) Atlantic + Mediterranean <0.001 <0.001 --Route type Local Atlantic Atlantic + Mediterranean (b)n 47 44Mean ?SE 4434 ?248 5904 ?214 7902 ?Atlantic <0.001 -- --Mean ?SE 1049 ?4 1059 ?4 1108 ?Atlantic 0.462 -- --Foraging ( of time) Mean ?SE Atlantic 0.001 -- -- Atlantic + Mediterranean <0.001 <0.001 --Flying ( of time) Mean ?SE 1.9 ?0.4 2.5 ?0.4 4.2 ?0.4 Atlantic 0.231 -- -- Atlantic + Mediterranean <0.001 <0.001 --Sitting on the water ( ) Mean ?SE 81.9 ?1.3 78.3 ?1.1 75.3 ?1.1 Atlantic <0.001 -- -- rstb.2013.0181 Atlantic + Mediterranean <0.001 <0.001 --Local Atlantic Atlantic + Mediterranean16.2 ?1.1 19.2 ?0.9 20.5 ?0.In all analyses, the "local + Mediterranean" route type is excluded because of its small sample size (n = 3). Significant values (P < 0.05) are in bold.puffins, although some evidence suggests that they are generalists (Harris et al. 2015) and that zooplankton are important (Hedd et al. 2010), and further research will be needed to understand the environmental drivers behind the choice of migratory routes and destinations.Potential mechanisms underlying dispersive migrationOur results shed light on 3 potential mechanisms underlying dispersive migration. Tracking individuals over multiple years (and up to a third of a puffin's 19-year average breeding lifespan, Harris.Our study birds, with different 10 quantiles in different colors, from green (close) to red (far). Extra-distance was added to the points in the Mediterranean Sea to account for the flight around Spain. Distances for each quantile are in the pie chart (unit: 102 km). (b) Average monthly overlap ( ) of the male and female 70 occupancy kernels throughout the year (mean ?SE). The overwintering months are represented with open circles and the breeding months with gray circles. (c ) Occupancy kernels of puffins during migration for females (green, left) and males (blue, right) in September/October (c ), December (e ), and February (g ). Different shades represent different levels of occupancy, from 10 (darkest) to 70 (lightest). The colony is indicated with a star.to forage more to catch enough prey), or birds attempting to build more reserves. The lack of correlation between foraging effort and individual breeding success suggests that it is not how much birds forage, but where they forage (and perhaps what they prey on), which affects how successful they are during the following breeding season. Interestingly, birds only visited the Mediterranean Sea, usually of low productivity, from January to March, which corresponds32 18-0-JulSepNovJanMarMay(d) September/October-males10 30 9010 3070 5070 50(f) December(h) Februaryto the occurrence of a large phytoplankton bloom. A combination fpsyg.2015.01413 of wind conditions, winter mixing, and coastal upwelling in the north-western part increases nutrient availability (Siokou-Frangou et al. 2010), resulting in higher productivity (Lazzari et al. 2012). This could explain why these birds foraged more than birds anywhere else in the late winter and had a higher breeding success. However, we still know very little about the winter diet of adultBehavioral EcologyTable 1 (a) Total distance covered and DEE for each type of migration (mean ?SE and adjusted P values for pairwise comparison). (b) Proportions of daytime spent foraging, flying, and sitting on the surface for each type of migration route (mean ?SE and P values from linear mixed models with binomial family) (a) Distance covered (km) Atlantic + Mediterranean <0.001 <0.001 -- DEE (kJ/day) Atlantic + Mediterranean <0.001 <0.001 --Route type Local Atlantic Atlantic + Mediterranean (b)n 47 44Mean ?SE 4434 ?248 5904 ?214 7902 ?Atlantic <0.001 -- --Mean ?SE 1049 ?4 1059 ?4 1108 ?Atlantic 0.462 -- --Foraging ( of time) Mean ?SE Atlantic 0.001 -- -- Atlantic + Mediterranean <0.001 <0.001 --Flying ( of time) Mean ?SE 1.9 ?0.4 2.5 ?0.4 4.2 ?0.4 Atlantic 0.231 -- -- Atlantic + Mediterranean <0.001 <0.001 --Sitting on the water ( ) Mean ?SE 81.9 ?1.3 78.3 ?1.1 75.3 ?1.1 Atlantic <0.001 -- -- rstb.2013.0181 Atlantic + Mediterranean <0.001 <0.001 --Local Atlantic Atlantic + Mediterranean16.2 ?1.1 19.2 ?0.9 20.5 ?0.In all analyses, the "local + Mediterranean" route type is excluded because of its small sample size (n = 3). Significant values (P < 0.05) are in bold.puffins, although some evidence suggests that they are generalists (Harris et al. 2015) and that zooplankton are important (Hedd et al. 2010), and further research will be needed to understand the environmental drivers behind the choice of migratory routes and destinations.Potential mechanisms underlying dispersive migrationOur results shed light on 3 potential mechanisms underlying dispersive migration. Tracking individuals over multiple years (and up to a third of a puffin's 19-year average breeding lifespan, Harris.
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