The hyperdominant tropical tree {Eschweilera} coriacea ({Lecythidaceae}) shows higher genetic heterogeneity than sympatric {Eschweilera} species in {French} {Guiana}. Plant Ecology and Evolution. 153:67–81.
.
2020. .
2020. I got it from my mother: {Inter}-nest variation of mercury concentration in neonate {Smooth}-fronted {Caiman} ({Paleosuchus} trigonatus) suggests maternal transfer and possible phenotypical effects. Environmental Research. :110494.
.
2020. Identification of soil microflora with different types of land use. Journal of Balkan Ecology. Journal of Balkan Ecology.
.
2020. The {Impact} of {Competition} and {Allelopathy} on the {Trade}-{Off} between {Plant} {Defense} and {Growth} in {Two} {Contrasting} {Tree} {Species}. Frontiers in Plant Science. 7:594.
.
2016. Impact of elevated {CO}2 concentration on dynamics of leaf photosynthesis in Fagus sylvatica is modulated by sky conditions. 185:271–280.
.
2014. Impact of long-term water level drawdown on functional plant trait composition of northern peatlands. 35:2342–2357.
.
2021. Impact of precipitation, air temperature and abiotic emissions on gross primary production in {Mediterranean} ecosystems in {Europe}. European Journal of Forest Research. 139:111–126.
.
2020. Impact of precipitation, air temperature and abiotic emissions on gross primary production in {Mediterranean} ecosystems in {Europe}. European Journal of Forest Research. 139:111–126.
.
2020. Impacts of {Degradation} on {Water}, {Energy}, and {Carbon} {Cycling} of the {Amazon} {Tropical} {Forests}. Journal of Geophysical Research: Biogeosciences. 125:e2020JG005677.
.
2020. Impacts of elevated atmospheric {CO2} concentration on terrestrial-aquatic carbon transfer and a downstream aquatic microbial community. Aquatic Sciences. 80:27.
.
2018. Impacts of elevated atmospheric {CO2} concentration on terrestrial-aquatic carbon transfer and a downstream aquatic microbial community. Aquatic Sciences. 80:27.
.
2018. The impacts of spatial baseline on forest canopy height model and digital terrain model retrieval using {P}-band {PolInSAR} data. Remote Sensing of Environment. 210:403–421.
.
2018. Imperfect transparency and camouflage in glass frogs. Proceedings of the National Academy of Sciences. 117:12885.
.
2020. .
2020. On the {Importance} of {High}-{Resolution} {Time} {Series} of {Optical} {Imagery} for {Quantifying} the {Effects} of {Snow} {Cover} {Duration} on {Alpine} {Plant} {Habitat}. Remote Sensing. 8:481.
.
2016. Importance of succession in estimating biomass loss: {Combining} remote sensing and individual-based forest models. Biogeosciences Discussions. :1–23.
.
2020. Improving nomenclatural consistency: a decade of experience in the {World} {Register} of {Marine} {Species}. European Journal of Taxonomy.
.
2017. In {Situ} {Reference} {Datasets} {From} the {TropiSAR} and {AfriSAR} {Campaigns} in {Support} of {Upcoming} {Spaceborne} {Biomass} {Missions}. IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing.
.
2018. In situ resistance, not immigration, supports invertebrate community resilience to drought intensification in a {Neotropical} ecosystem. Journal of Animal Ecology. n/a
.
2021. Indirect effects of extreme precipitation on the growth of Vallisneria denseserrulata Makino. 153:229–235.
.
2018. Influence of food-web structure on the biodegradability of lake sediment: \textit{{Food}-web effects on sediment biodegradability}. Freshwater Biology. 57:2390–2400.
.
2012. The influence of host-plant connectivity on fungal assemblages in the root microbiota of {Brachypodium} pinnatum. Ecology. 101:e02976.
.
2020. Influence of light-absorbing particles on snow spectral irradiance profiles. The Cryosphere. 13:2169–2187.
.
2019. .
2019.