cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.17611/dp/16769436
title: Surface-Wave Radiation Patterns for December 13, 2007 MW 6.2 NEAR COAST OF NORTHERN CHILE
DOI: 10.17611/dp/16769466
title: Surface-Wave Radiation Patterns for December 13, 2007 MW 6.2 SAMOA ISLANDS REGION
DOI: 10.17611/dp/16769496
title: Surface-Wave Radiation Patterns for December 15, 2007 MW 6.0 BANDA SEA
DOI: 10.17611/dp/16769526
title: Surface-Wave Radiation Patterns for December 15, 2007 MW 6.4 TANIMBAR ISLANDS REG., INDONESIA
DOI: 10.17611/dp/16769556
title: Surface-Wave Radiation Patterns for December 16, 2007 MW 6.7 NEAR COAST OF NORTHERN CHILE
DOI: 10.17611/dp/16769586
title: Surface-Wave Radiation Patterns for December 19, 2007 MW 7.2 ANDREANOF ISLANDS, ALEUTIAN IS.
DOI: 10.17611/dp/16769616
title: Surface-Wave Radiation Patterns for December 20, 2007 MW 6.6 OFF E. COAST OF N. ISLAND, N.Z.
DOI: 10.17611/dp/16769646
title: Surface-Wave Radiation Patterns for December 21, 2007 MW 6.3 ANDREANOF ISLANDS, ALEUTIAN IS.
DOI: 10.17611/dp/16769676
title: Surface-Wave Radiation Patterns for December 22, 2007 MW 6.2 NEAR NORTH COAST OF IRIAN JAYA
DOI: 10.17611/dp/16769706
title: Surface-Wave Radiation Patterns for December 22, 2007 MW 6.1 OFF W COAST OF NORTHERN SUMATRA
DOI: 10.17611/dp/16769736
title: Surface-Wave Radiation Patterns for December 25, 2007 MW 6.1 NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/16769766
title: Surface-Wave Radiation Patterns for December 26, 2007 MW 6.4 FOX ISLANDS, ALEUTIAN ISLANDS
DOI: 10.17611/dp/16769796
title: Surface-Wave Radiation Patterns for January 01, 2008 MW 6.3 EASTERN NEW GUINEA REG., P.N.G.
DOI: 10.17611/dp/16769826
title: Surface-Wave Radiation Patterns for January 04, 2008 MW 6.0 SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16769856
title: Surface-Wave Radiation Patterns for January 05, 2008 MW 6.6 QUEEN CHARLOTTE ISLANDS REGION
DOI: 10.17611/dp/16769886
title: Surface-Wave Radiation Patterns for January 05, 2008 MW 6.4 VANCOUVER ISLAND, CANADA REGION
DOI: 10.17611/dp/16769916
title: Surface-Wave Radiation Patterns for January 06, 2008 MW 6.2 SOUTHERN GREECE
DOI: 10.17611/dp/16769946
title: Surface-Wave Radiation Patterns for January 09, 2008 MW 6.4 XIZANG
DOI: 10.17611/dp/16769976
title: Surface-Wave Radiation Patterns for January 09, 2008 MW 6.0 QUEEN CHARLOTTE ISLANDS REGION
DOI: 10.17611/dp/16770006
title: Surface-Wave Radiation Patterns for January 10, 2008 MW 6.3 OFF COAST OF OREGON
DOI: 10.17611/dp/16770036
title: Surface-Wave Radiation Patterns for January 15, 2008 MW 6.5 SOUTH OF FIJI ISLANDS
DOI: 10.17611/dp/16770066
title: Surface-Wave Radiation Patterns for January 20, 2008 MW 6.1 NORTHERN MOLUCCA SEA
DOI: 10.17611/dp/16770096
title: Surface-Wave Radiation Patterns for January 22, 2008 MW 6.0 TONGA ISLANDS
DOI: 10.17611/dp/16770126
title: Surface-Wave Radiation Patterns for January 22, 2008 MW 6.1 TONGA ISLANDS
DOI: 10.17611/dp/16770156
title: Surface-Wave Radiation Patterns for January 22, 2008 MW 6.2 NORTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16770186
title: Surface-Wave Radiation Patterns for January 30, 2008 MW 6.1 BANDA SEA
DOI: 10.17611/dp/16770216
title: Surface-Wave Radiation Patterns for February 01, 2008 MW 6.0 FIJI ISLANDS REGION
DOI: 10.17611/dp/16770246
title: Surface-Wave Radiation Patterns for February 04, 2008 MW 6.3 NEAR COAST OF NORTHERN CHILE
DOI: 10.17611/dp/16770276
title: Surface-Wave Radiation Patterns for February 08, 2008 MW 6.9 NORTHERN MID-ATLANTIC RIDGE
DOI: 10.17611/dp/16770306
title: Surface-Wave Radiation Patterns for February 12, 2008 MW 6.5 OAXACA, MEXICO
DOI: 10.17611/dp/16770336
title: Surface-Wave Radiation Patterns for February 13, 2008 MW 6.2 TIMOR SEA
DOI: 10.17611/dp/16770366
title: Surface-Wave Radiation Patterns for February 14, 2008 MW 6.8 SOUTHERN GREECE
DOI: 10.17611/dp/16770396
title: Surface-Wave Radiation Patterns for February 14, 2008 MW 6.5 SOUTHERN GREECE
DOI: 10.17611/dp/16770426
title: Surface-Wave Radiation Patterns for February 16, 2008 MW 6.1 CHILE-BOLIVIA BORDER REGION
DOI: 10.17611/dp/16770456
title: Surface-Wave Radiation Patterns for February 20, 2008 MW 7.3 OFF W COAST OF NORTHERN SUMATRA
DOI: 10.17611/dp/16770486
title: Surface-Wave Radiation Patterns for February 20, 2008 MW 6.2 SOUTHERN GREECE
DOI: 10.17611/dp/16770516
title: Surface-Wave Radiation Patterns for February 21, 2008 MW 6.1 SVALBARD REGION
DOI: 10.17611/dp/16770546
title: Surface-Wave Radiation Patterns for February 21, 2008 MW 6.0 NEVADA
DOI: 10.17611/dp/16770576
title: Surface-Wave Radiation Patterns for February 23, 2008 MW 6.7 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/16770606
title: Surface-Wave Radiation Patterns for February 24, 2008 MW 6.5 SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16770636
title: Surface-Wave Radiation Patterns for February 25, 2008 MW 7.2 SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16770666
title: Surface-Wave Radiation Patterns for February 25, 2008 MW 6.7 SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16770696
title: Surface-Wave Radiation Patterns for March 03, 2008 MW 6.2 SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/16770726
title: Surface-Wave Radiation Patterns for March 03, 2008 MW 6.5 KURIL ISLANDS
DOI: 10.17611/dp/16770756
title: Surface-Wave Radiation Patterns for March 03, 2008 MW 6.0 PHILIPPINE ISLANDS REGION
DOI: 10.17611/dp/16770786
title: Surface-Wave Radiation Patterns for March 03, 2008 MW 6.9 PHILIPPINE ISLANDS REGION
DOI: 10.17611/dp/16770816
title: Surface-Wave Radiation Patterns for March 12, 2008 MW 6.4 VANUATU ISLANDS
DOI: 10.17611/dp/16770846
title: Surface-Wave Radiation Patterns for March 12, 2008 MW 6.3 VANUATU ISLANDS
DOI: 10.17611/dp/16770876
title: Surface-Wave Radiation Patterns for August 24, 2016 MW 6.2 CENTRAL ITALY
DOI: 10.17611/dp/16770906
title: Surface-Wave Radiation Patterns for August 31, 2016 MW 6.8 NEW IRELAND REGION, P.N.G.
DOI: 10.17611/dp/16770936
title: Surface-Wave Radiation Patterns for September 01, 2016 MW 7.1 OFF E. COAST OF N. ISLAND, N.Z.
DOI: 10.17611/dp/16770966
title: Surface-Wave Radiation Patterns for June 15, 2017 MW 6.0 KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/16770996
title: Surface-Wave Radiation Patterns for November 13, 2006 MW 6.8 SANTIAGO DEL ESTERO PROV., ARG.
DOI: 10.17611/dp/16771026
title: Surface-Wave Radiation Patterns for February 17, 2007 MW 6.0 HOKKAIDO, JAPAN REGION
DOI: 10.17611/dp/16771056
title: Surface-Wave Radiation Patterns for February 20, 2007 MW 6.0 HALMAHERA, INDONESIA
DOI: 10.17611/dp/16771086
title: Surface-Wave Radiation Patterns for February 24, 2007 MW 6.3 OFF COAST OF NORTHERN PERU
DOI: 10.17611/dp/16771116
title: Surface-Wave Radiation Patterns for February 28, 2007 MW 6.1 SOUTH SANDWICH ISLANDS REGION
DOI: 10.5281/zenodo.16144533
title: Sex Differences in Ketogenic Diet Response Reveal Gonadal Hormone Interaction with FGF21 in Mice

description: Although indicated as adjunctive therapy for seizure disorders, ketogenic diets (KD) have gained popularity for weight loss and mitigating the metabolic risks associated with severe obesity. However, efficacy, durability and long-term consequences are incompletely understood. In preclinical models, most studies have only included male mice, precluding an understanding of sex-specific responses to KD. In this study, we investigated sex differences in response to a high-fat, low carbohydrate, low protein KD using male and female C57BL/6J mice. Despite equivalent circulating levels of β-hydroxybutyrate (β-HB), male mice exhibited weight loss characterized by loss of fat mass and lean mass in concert with increased energy expenditure. In contrast, female mice exhibited increased fat mass and body weight on the KD. Male mice manifested increased insulin sensitivity, without reducing glucose excursions during glucose tolerance testing, in concert with decreased glucose-stimulated insulin release. In contrast, females developed glucose intolerance and insulin resistance relative to control females. Following oophorectomy, female mice lost weight on KD but remained glucose intolerant. Orchidectomy in male mice reversed weight loss in KD males. Circulating Fibroblast Growth Factor 21 (FGF21) concentrations were increased in males but not females on KD and correlated with increased FGF21 expression in brown adipose tissue (BAT). These findings demonstrate that the metabolic effects of KD are sex-specific and suggest that gonadal hormones modulate the adaptive response to ketogenic diets via FGF21 signaling.
DOI: 10.17611/dp/16771146
title: Surface-Wave Radiation Patterns for March 01, 2007 MW 6.0 NORTHERN MID-ATLANTIC RIDGE
DOI: 10.5281/zenodo.16144532
title: Sex Differences in Ketogenic Diet Response Reveal Gonadal Hormone Interaction with FGF21 in Mice

description: Although indicated as adjunctive therapy for seizure disorders, ketogenic diets (KD) have gained popularity for weight loss and mitigating the metabolic risks associated with severe obesity. However, efficacy, durability and long-term consequences are incompletely understood. In preclinical models, most studies have only included male mice, precluding an understanding of sex-specific responses to KD. In this study, we investigated sex differences in response to a high-fat, low carbohydrate, low protein KD using male and female C57BL/6J mice. Despite equivalent circulating levels of β-hydroxybutyrate (β-HB), male mice exhibited weight loss characterized by loss of fat mass and lean mass in concert with increased energy expenditure. In contrast, female mice exhibited increased fat mass and body weight on the KD. Male mice manifested increased insulin sensitivity, without reducing glucose excursions during glucose tolerance testing, in concert with decreased glucose-stimulated insulin release. In contrast, females developed glucose intolerance and insulin resistance relative to control females. Following oophorectomy, female mice lost weight on KD but remained glucose intolerant. Orchidectomy in male mice reversed weight loss in KD males. Circulating Fibroblast Growth Factor 21 (FGF21) concentrations were increased in males but not females on KD and correlated with increased FGF21 expression in brown adipose tissue (BAT). These findings demonstrate that the metabolic effects of KD are sex-specific and suggest that gonadal hormones modulate the adaptive response to ketogenic diets via FGF21 signaling.
DOI: 10.17611/dp/16771176
title: Surface-Wave Radiation Patterns for March 09, 2007 MW 6.0 PRIMOR'YE, RUSSIA
DOI: 10.17611/dp/16771206
title: Surface-Wave Radiation Patterns for March 17, 2007 MW 6.0 SOUTH OF PANAMA
DOI: 10.17611/dp/16771236
title: Surface-Wave Radiation Patterns for March 18, 2007 MW 6.2 SOUTH OF PANAMA
DOI: 10.17611/dp/16771266
title: Surface-Wave Radiation Patterns for March 25, 2007 MW 7.1 VANUATU ISLANDS
DOI: 10.17611/dp/16771296
title: Surface-Wave Radiation Patterns for March 25, 2007 MW 6.7 NEAR WEST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/16771326
title: Surface-Wave Radiation Patterns for March 25, 2007 MW 6.9 LOYALTY ISLANDS
DOI: 10.17611/dp/16771356
title: Surface-Wave Radiation Patterns for April 01, 2007 MW 8.1 SOLOMON ISLANDS
DOI: 10.17611/dp/16771386
title: Surface-Wave Radiation Patterns for April 01, 2007 MW 6.9 SOLOMON ISLANDS
DOI: 10.17611/dp/16771416
title: Surface-Wave Radiation Patterns for April 02, 2007 MW 6.1 SOUTHERN CHILE
DOI: 10.17611/dp/16771446
title: Surface-Wave Radiation Patterns for April 02, 2007 MW 6.0 SOLOMON ISLANDS
DOI: 10.17611/dp/16771476
title: Surface-Wave Radiation Patterns for April 02, 2007 MW 6.2 SOLOMON ISLANDS
DOI: 10.17611/dp/16771506
title: Surface-Wave Radiation Patterns for April 03, 2007 MW 6.2 HINDU KUSH REGION, AFGHANISTAN
DOI: 10.17611/dp/16771536
title: Surface-Wave Radiation Patterns for April 03, 2007 MW 6.0 SOLOMON ISLANDS
DOI: 10.17611/dp/16771566
title: Surface-Wave Radiation Patterns for April 03, 2007 MW 6.2 LOYALTY ISLANDS
DOI: 10.17611/dp/16771596
title: Surface-Wave Radiation Patterns for April 04, 2007 MW 6.4 SOLOMON ISLANDS
DOI: 10.17611/dp/16771626
title: Surface-Wave Radiation Patterns for April 04, 2007 MW 6.2 LOYALTY ISLANDS
DOI: 10.17611/dp/16771656
title: Surface-Wave Radiation Patterns for April 04, 2007 MW 6.5 LOYALTY ISLANDS
DOI: 10.17611/dp/16771686
title: Surface-Wave Radiation Patterns for April 07, 2007 MW 6.1 OFF W COAST OF NORTHERN SUMATRA
DOI: 10.17611/dp/16771716
title: Surface-Wave Radiation Patterns for April 12, 2007 MW 6.0 BALLENY ISLANDS REGION
DOI: 10.17611/dp/16771746
title: Surface-Wave Radiation Patterns for April 13, 2007 MW 6.0 GUERRERO, MEXICO
DOI: 10.17611/dp/16771776
title: Surface-Wave Radiation Patterns for April 13, 2007 MW 6.1 SOUTHERN EAST PACIFIC RISE
DOI: 10.17611/dp/16771806
title: Surface-Wave Radiation Patterns for April 16, 2007 MW 6.4 WEST OF MACQUARIE ISLAND
DOI: 10.17611/dp/16771836
title: Surface-Wave Radiation Patterns for April 20, 2007 MW 6.1 SOUTHWESTERN RYUKYU ISL., JAPAN
DOI: 10.17611/dp/16771866
title: Surface-Wave Radiation Patterns for April 20, 2007 MW 6.3 SOUTHWESTERN RYUKYU ISL., JAPAN
DOI: 10.15468/dl.tfa8nx
title: Occurrence Download

description: A dataset containing 0 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Haminoea japonica",
 "Country is France",
 "HasCoordinate is true"
 ]
}

 The dataset includes 0 records from 0 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0026863-250811113504898/datasets/export for details.
DOI: 10.17611/dp/16771896
title: Surface-Wave Radiation Patterns for April 20, 2007 MW 6.0 SOUTHWESTERN RYUKYU ISL., JAPAN
DOI: 10.15468/dl.5cqznm
title: Occurrence Download

description: A dataset containing 1 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Canis lupus",
 "Country is Antigua and Barbuda",
 "HasCoordinate is true"
 ]
}

 The dataset includes 1 records from 1 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0026861-250811113504898/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17611/dp/16771926
title: Surface-Wave Radiation Patterns for April 21, 2007 MW 6.1 NEW IRELAND REGION, P.N.G.
DOI: 10.17611/dp/16771956
title: Surface-Wave Radiation Patterns for April 21, 2007 MW 6.0 VANUATU ISLANDS
DOI: 10.17611/dp/16771986
title: Surface-Wave Radiation Patterns for April 21, 2007 MW 6.2 SOUTHERN CHILE
DOI: 10.17611/dp/16772016
title: Surface-Wave Radiation Patterns for April 25, 2007 MW 6.4 VANUATU ISLANDS
DOI: 10.17611/dp/16772046
title: Surface-Wave Radiation Patterns for April 28, 2007 MW 6.1 EAST OF SOUTH SANDWICH ISLANDS
DOI: 10.17611/dp/16772076
title: Surface-Wave Radiation Patterns for April 29, 2007 MW 6.2 ANDREANOF ISLANDS, ALEUTIAN IS.
DOI: 10.17611/dp/16772106
title: Surface-Wave Radiation Patterns for May 05, 2007 MW 6.1 XIZANG
DOI: 10.15468/dl.9jvh98
title: Occurrence Download

description: A dataset containing 0 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Haminoea japonica",
 "Country is Netherlands",
 "HasCoordinate is true"
 ]
}

 The dataset includes 0 records from 0 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0026865-250811113504898/datasets/export for details.
DOI: 10.5061/dryad.345kq81
title: Data from: Density and biotic interactions modify the combined effects of global and local stressors

description: A key challenge in predicting the effects of global changes is determining
 how they may modify the influence of localised stressors, such that steps
 can be taken to minimise combined effects. Combined effects of global and
 local stressors can be difficult to predict as they are underpinned by
 influences on individual species and interactions between them, which in
 turn may be affected by absolute and relative densities. Here we tested
 experimentally the influence of increased temperature and/or nutrients on
 individual species, interactions between them and the consequences for
 ecosystem functioning. Elevated temperature had a more positive influence
 on functioning when species were combined in mixtures than when in
 monoculture. Responses to increased nutrients were positive irrespective
 of whether a species was in monoculture or in a mixture. Additionally,
 those effects were modified by changes in the relative density of the
 species, which in some cases resulted in shifts from negative
 interspecific interactions (competition) to positive interactions
 (facilitation) or vice versa.
description: Raw data file Brooks
 & Crowe March 2018
DOI: 10.5061/dryad.p3hr1
title: Data from: Nematode-bacteria nutualism: selection within the mutualism supersedes selection outside of the mutualism

description: The coevolution of interacting species can lead to codependent mutualists.
 Little is known about the effect of selection on partners within verses
 apart from the association. Here, we determined the effect of selection on
 bacteria (Xenorhabdus nematophila) both within and apart from its
 mutualistic partner (a nematode, Steinernema carpocapsae). In nature, the
 two species cooperatively infect and kill arthropods. We passaged the
 bacteria either together with (M+), or isolated from (M−), nematodes under
 two different selection regimes: random selection (S−) and selection for
 increased virulence against arthropod hosts (S+). We found that the
 isolated bacteria evolved greater virulence under selection for greater
 virulence (M−S+) than under random selection (M−S−). In addition, the
 response to selection in the isolated bacteria (M−S+) caused a breakdown
 of the mutualism following reintroduction to the nematode. Finally,
 selection for greater virulence did not alter the evolutionary
 trajectories of bacteria passaged within the mutualism (M+S+ = M+S−),
 indicating that selection for the maintenance of the mutualism was
 stronger than selection for increased virulence. The results show that
 selection on isolated mutualists can rapidly breakdown beneficial
 interactions between species, but that selection within a mutualism can
 supersede external selection, potentially generating codependence over
 time.
description: Fig. 2A
 dataG. mellonella mortality
 after infection with experimental X. nematophila.MUTEE Mortality Assay
 Dryad.xlsxFig. S1
 dataG. mellonella mortality
 after X. nematophila infection. X. nematophila strains were experimentally
 evolved apart from their nematode host, S. carpocapsae for 10
 generations.MUTEE supplement mortality
 assay Dryad.xlsxFig. 2B
 dataG. mellonella mortality
 exposed to experimental S. carpocapsae and X. nematophila
 populations.MUTEE Fig2B
 Dryad.xlsxFig. 2C
 dataG. mellonella survival
 and S. carpocapsae emergence from recapitulated mutualisms generated with
 experimental populations of X. nematophila.MUTEE fig 2c
 Dryad.xlsxFig. 3
 dataG. mellonella mortality
 after infection with recapitulated mutualisms. S. carpocapsae were derived
 from the ancestral population, while X. nematophila populations were the
 experimental populations.MUTEE Fig3
 Dryad.xlsx
DOI: 10.5061/dryad.fk71c
title: Data from: Size matters: individual variation in ectotherm growth and asymptotic size

description: Body size, and, by extension, growth has impacts on physiology, survival,
 attainment of sexual maturity, fecundity, generation time, and population
 dynamics, especially in ectotherm animals that often exhibit extensive
 growth following attainment of sexual maturity. Frequently, growth is
 analyzed at the population level, providing useful population mean growth
 parameters but ignoring individual variation that is also of ecological
 and evolutionary significance. Our long-term study of Lake Erie
 Watersnakes, Nerodia sipedon insularum, provides data sufficient for a
 detailed analysis of population and individual growth. We describe
 population mean growth separately for males and females based on size of
 known age individuals (847 captures of 769 males, 748 captures of 684
 females) and annual growth increments of individuals of unknown age (1,152
 males, 730 females). We characterize individual variation in asymptotic
 size based on repeated measurements of 69 males and 71 females that were
 each captured in five to nine different years. The most striking result of
 our analyses is that asymptotic size varies dramatically among
 individuals, ranging from 631 - 820 mm snout-vent length in males and from
 835 - 1125 mm in females. Because female fecundity increases with
 increasing body size, we explore the impact of individual variation in
 asymptotic size on lifetime reproductive success using a range of
 realistic estimates of annual survival. When all females commence
 reproduction at the same age, lifetime reproductive success is greatest
 for females with greater asymptotic size regardless of annual survival.
 But when reproduction is delayed in females with greater asymptotic size,
 lifetime reproductive success is greatest for females with lower
 asymptotic size when annual survival is low. Possible causes of individual
 variation in asymptotic size, including individual- and cohort-specific
 variation in size at birth and early growth, warrant further
 investigation.
description: Lake Erie Watersnake
 Growth Data Sets
DOI: 10.5061/dryad.tr050
title: Data from: The body size dependence of mutual interference

description: The parameters that drive population dynamics typically show a
 relationship with body size. By contrast, there is no theoretical or
 empirical support for a body-size dependence of mutual interference, which
 links foraging rates to consumer density. Here, I develop a model to
 predict that interference may be positively or negatively related to body
 size depending on how resource body size scales with consumer body size.
 Over a wide range of body sizes, however, the model predicts that
 interference will be body-size independent. This prediction was supported
 by a new dataset on interference and consumer body size. The stabilizing
 effect of intermediate interference therefore appears to be roughly
 constant across size, while the effect of body size on population dynamics
 is mediated through other parameters.
description: Data and
 sourcesData were compiled from
 a range of published sources on interference competition and body size.
 See 'Read me' file for more details and full
 references.Mutual interference data set
 for ESM.xlsx