Fig. 1. Illustration of the experimental design with two hypothetical meadows stemming from the two different mowing regimes (WYRR and BYRR). Invertebrate sampling occurred in 2021 and only in the uncut refuge areas.

Fig. 2. Depiction of the different methods used to sample the vegetation and arthropods in an uncut refuge.

🌼 New #BAAE article: How often should meadow refuges rotate? 🌿

Rotating uncut grass after each cut boosts arthropod abundance, benefiting spiders & bees, but some taxa prefer yearly shifts. Smart rotation can maximize meadow biodiversity.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Fig. 1. (A) Land cover and land use (LCLU) map of Belgium displaying the location of surveyed fields and reference weather stations from the WOW-BE platform (KMI, 2023) for three consecutive growing seasons (2021–2023). (B) Visualization of the spatial scales used for the calculation of landscape metrics. (C) Weather station assignment

Fig. 2. Cumulative abundance (CAb) and week of first observation (WFO) of (A) alate and (B) apterous M. persicae in sugar beet over three consecutive growing seasons. Each point represents an individual field observation, with color indicating the sowing week for the corresponding field.

🪲 New #BAAE article: What drives green peach aphid outbreaks in European sugar beet?

Warmer winters & early sowing boost Myzus persicae arrival and abundance, while landscape effects are scale-dependent. 🌡️

DOI:https://doi.org/10.1016/j.baae.2025.11.005
@gfoesoc.bsky.social

We are happy to announce 36 great thematic sessions for our #NSO2026 #GfOe2026 joint NSO-GfÖ conference – bringing together diverse perspectives across the field of ecology. We look forward to be inspired!

Explore the full line-up: vist.ly/4txjq

@gfoesoc.bsky.social

Thrilled our thematic session (with co-organizer @kaa-nie.bsky.social) entitled "linking patterns and processes in forest ecology with remote sensing" was accepted for @nordicoikos.bsky.social + @gfoesoc.bsky.social 🥳

We've got an exciting line-up of speakers and topics for you!

Fig. 1. a) Map of managed and abandoned study sites within Estonia. b) Cross-section of a trap nest block with chewed leaf material and pollen provisions. c) Nest block mounted on a juniper tree at one of the study sites.

Fig. 2. Pie charts illustrating the percent of total relative abundance of sequences across all samples represented by a) each plant family and b) each Asteraceae genus. Those with percentages ≥ 0.5 % of total relative abundance among all samples are shown individually, while all others are grouped into the “Other” category.

🐝 New #BAAE article: Landscape context shapes pollen use of the specialist bee Osmia leaiana in Estonian alvar grasslands 🇪🇪

Semi-natural grasslands & Cichorioideae drive pollen composition, while cropland & forest reduce brood production. 🌿

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Fig. 1. Conceptual view of the expected influence of the new littoral zones with recoupled habitats on primary producers, macroinvertebrate primary consumers and higher trophic levels in Lake Markermeer, The Netherlands. Primary production in the original lake in the pelagic zone (left food web) is mainly driven by pelagic phytoplankton. In the new littoral zones (right food web), additional contributions of benthic (macrophytes and periphyton) and terrestrial (shore plants) primary producers are expected, forming a broader base of consumers and higher trophic levels in a more complex food web. Food web based on Jin (2021).

Fig. 2. (a) Lake Markermeer in the Netherlands with the sampling locations of isotope and community data indicated. The rectangle shows the location of the Marker Wadden in Lake Markermeer further detailed in panel b. (b) The Marker Wadden archipelago with the isotope and community data sampling locations. Turquoise shading indicates water depths shallower than 1.5 m. (c) Light availability in the form of Photosynthetically Active Radiation (PAR) at different water depths in lake Markermeer. The approximate shore / littoral and sheltered limnetic areas are indicated with turquoise and pink shading, respectively, which illustrates that PAR at the sediment surface in the 4 m deep open water is very low.

🌊 New #BAAE article: Shoreline restoration boosts food web recovery in Markermeer

Creating shallow littoral habitats increased benthic production and carbon fluxes to pelagic zones, enhancing macroinvertebrate diversity in this restored lake. 🐟

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

www.uni-goettingen.de/en/3240.html...
Hidden insect diversity in grass shoots threatened by mowing

Programme highlights: keynote on sustainable agriculture & scientific networks, exchange on current agroecology research, election of the AK Agrarökologie head & planning of future activities.

👉🏻 www.gfoe.org/de/ueber-uns...

@uni-wuerzburg.de
@utefricke.bsky.social
@sarahredlich.bsky.social

Target group:

Scientists in the field of agroecology, particularly those interested in joining the AK Agrarökologie or who are already members.

👉🏻 www.gfoe.org/de/ueber-uns...

@uni-wuerzburg.de
@utefricke.bsky.social
@sarahredlich.bsky.social

🌱 Specialist Group Agroecology is back!

Join us 20–21 April 2026 at the Biocentre, Uni Würzburg to reconnect, exchange and hear a keynote on sustainable agriculture & shape future activities.

👉🏻 short-url.org/1pJLe

@uni-wuerzburg.de
@utefricke.bsky.social
@sarahredlich.bsky.social

Fig. 1. Abundance of a) diurnal and b) nocturnal ground beetles for the size classes <4 mm; 4–8 mm; 8–12 mm and >12 mm in extensively (EM, n = 112) and intensively managed (IM, n = 115) grasslands. Mean +-se.

Fig. 2. Rank abundance curves of extensively managed (EM) grasslands and intensively managed (IM) grasslands. Species names of the indicator species are shown.

🐞 New #BAAE article: Extensive grassland management boosts ground beetle diversity

Fields host more 4–12 mm diurnal beetles, the ideal prey for breeding farmland birds, supporting biodiversity-friendly farming. 🐦

DOI:https://doi.org/10.1016/j.baae.2025.11.006
@gfoesoc.bsky.social

❓️How can we environmental scientists & our professional societies be more impactful❓️

READ OUR PAPER👇‼️🎉

@gfoesoc.bsky.social @biogeography.bsky.social @entsocamerica.bsky.social @scbeurope.bsky.social @ecolsocaus.bsky.social @esajournals.bsky.social

Fig. 1. Overview over the day and night light settings of the five treatment groups. All groups had the same settings during the day, starting with approximately 80 lx at 7 am and an increase every 15 min until 8 am (steps: 80.10 ± 3.40 lx, 161.35 ± 7.21 lx, 239.90 ± 11.50 lx, 316.65 ± 13.32 lx), followed by a daylight phase (392.41 ± 19.61 lx) and a step-wise decrease from 10 – 11 pm following the same levels as from 7 – 8 am in reversed order. During the night, the illuminance was < 0.01 lx in the dark group (D), while the other groups experienced artificial light a night of different durations (P = part-night, C = continuous) and intensities (L = low, H = high), with the following illuminances: LP 5.20 ± 0.29 lx (at 11 pm – 2 am and 5 – 7 am), HP 49.00 ± 2.53 lx (11 pm – 2 am, 5 – 7 am), LC 5.20 ± 0.29 lx during the whole night, HC 49.00 ± 2.53 lx, whole night. Illuminance values are means ± SD taken from n = 17–20 measurements at the height of the Petri dishes containing the insects.

🪲 New #BAAE article: Artificial light at night reshapes beetle development & chemistry 💡

High, continuous ALAN delays development and alters chemical profiles, while part-night or low light reduces impacts. 🌌

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Strengthening responsibilities to face global crises: A call to ecologists, environmental scientists and their societies Read the free Plain Language Summary for this article on the Journal blog.

This is a publication I believe all ecologists should read and discuss.

How often have you asked yourself: Are we impactful enough in times of multiple environmental crises?

A collaborative effort of #ANdiNa

besjournals.onlinelibrary.wiley.com/doi/10.1002/...

Fig. 1. The relationship between mean shoot length per grass species to species richness of the endophytic insects found in these shoots. A The number of herbivore species, B the sum of herbivore and parasitoid species. The five points indicating no species at all indicate that no one insect species has been reared from the five annual grass species studied, despite intensive shoot sampling (see Table 1). The inquilines of P. australis are included (see Table 2, see also Fig. S2A and S2B for regressions without inquilines). Regression lines were fitted to the species richness found in the ten perennial grass species.

Fig. 2. Images illustrating the insect community of the shoot-inhabiting gall midge Giraudiella inclusa on Common Reed Phragmites australis. A Phragmites australis reedbelt with the ricegrain-like galls of Giraudiella inclusa inside internodes. B The gall midge Giraudiella inclusa: Oviposition, C Early Giraudiella gall development, D late Giraudiella gall development, E the Giraudiella parasitoid Torymus arundinis ovipositing, F the gregarious Giraudiella parasitoid Aprostocetus calamarius, G T. arundinis eggs on a dead 2nd instar host larva, H the conspicuously hairy, solitary T. arundinis larva, I midge skin filled with pupae of the gregarious Platygaster szelenii, J the solitary parasitoid Platygaster cf. quadrifarius (Tscharntke et al. 1991).

🌾🐛 New #BAAE article: Hidden insect food webs thrive inside perennial grass shoots 🌿

Longer shoots host richer herbivore–parasitoid communities. Unmown refuges are key to protecting these overlooked specialists. 🕷️

DOI:https://doi.org/10.1016/j.baae.2026.01.004
@gfoesoc.bsky.social

Applications are now open for the 2026 YoMos workshop!!!

Don’t miss this amazing chance !

@yomoseco.bsky.social

Our paper with Teja, Péter, and Stefan, "The hidden multitrophic diversity of specialized grass-shoot insects – neglected by grassland management," is published in @basicapplecol.bsky.social. It emphasizes the need for unmown refuges to support persistent insect populations.
doi.org/10.1016/j.ba...

Fig. 3. Percentage of reads attributed to carabid, prey and other for Nebria salina and Poecilus cupreus for samples from 2013 to 2019 and 2021. Colors distinguish between (a) prey reads (green), (b) carabid reads (blue) and (c) other reads (contaminants and not assigned – orange). Proportions are given as percentages of the total number per sample (after filtering the singletons).

Fig. 5. Prey diversity in the diet of Nebria salina (a) and Poecilus cupreus (b) through time. Each dot represents the diet of one carabid specimens, dots are jittered horizontally and vertically for more clarity. The curve corresponds to a linear regression with the grey area displaying the 95 % confidence interval.

🪲 New BAAE article:

Metabarcoding of stored carabid beetles reveals declining prey diversity over the last decade. Temporal diet shifts highlight long-term invertebrate declines and the value of historical collections for monitoring.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Fig. 1. Analytical workflow from community data processing to LCBD and Boosted Regression Trees (BRTs) results.

Fig. 2. Maps for the U.S. showing the local contribution to beta diversity (sesLCBD). (a) Watersheds without nonnatives (sesLCBDhistorical); (b) with nonnatives in LCBD (sesLCBDpresent).

🌊New BAAE article:

High-altitude watersheds are vulnerable to invasion. Nonnative species strongly drive declines in Local Contributions to Beta Diversity. Prioritize high-LCBD, low-richness-distinct, and low-FOri communities for conservation.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Presenting #NSO2026 #gfoe2026 keynote Riikka Rinnan, prof. in Ecosystem-Atmosphere interactions and director of the VOLT CoE, University of Copenhagen. Her current research focuses on the abiotic and biotic controls of VOC production.
vist.ly/4qb4d @gfoesoc.bsky.social @riikkarinnan.bsky.social

🌱🪱 New BAAE article:

Three pathways regulate soil micro-food webs under global change. Heavy metals cut nematodes by 76%, acid rain boosts them. Nematodes actively regulate ecosystem stress; soil acidification is a key driver.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

From the @ncbsbangalore.bsky.social India, we welcome Prof. Mahesh Sankaran to #NSO2026 #gfoe2026! He is a community + ecosystem ecologist focusing on understanding how climate change impacts the distribution,structure and functioning of tropical ecosystems. vist.ly/4qkmc @gfoesoc.bsky.social

Figure 2. (A) Globally threatened species richness in quarter-degree grid cells in Mozambique. Threatened species include those listed as ‘Critically Endangered’, ‘Endangered’, or ‘Vulnerable’ on the IUCN Red List (IUCN, 2024). (B) Proportion of open-habitat species in quarter-degree grid cells. Open-habitat species are those primarily associated with deserts, grasslands, open water, low shrubs, rocky habitats, seashores, urban areas, or the forest canopy (Tobias et al., 2022). (C) Proportion of large-range species in quarter-degree grid cells. Large-range species are defined as those with distribution ranges exceeding 15 million km² (Tobias et al., 2022).

🦜 New BAAE article:

In Mozambique, bird diversity peaks at intermediate farmland in savannas but declines in rainforests. Farmland expansion favors widespread species, threatening biodiversity. Biome-specific strategies are needed for conservation.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social

Our 3rd keynote at #NSO2026 #gfoe2026 is Matthias Rillig, Professor of Plant Ecology at @freieuniversitaet.bsky.social. He is a leading soil ecologist working at the interface of belowground biodiversity and global change.
vist.ly/4p26h @gfoesoc.bsky.social @mrillig.bsky.social

Fig. 1. Thinned Hooded Vulture occurrence records January 2015 – June 2024, land cover, annual mean temperature and precipitation across the study area (East Africa).

Fig. 5. Hooded Vulture response to (a) Annual Mean Temperature, (b) Annual Precipitation, (c) Precipitation Seasonality (CV: Coefficient of Variation), (d) Precipitation of Driest Quarter, (e) Precipitation of Warmest Quarter, (f) Isothermality, (g) Temperature Seasonality (SD × 100: Standard Deviation), (h) Temperature Annual Range, and (i) Elevation by GLM, Maxent, RF and eSDMs.

🦅🌍 New BAAE article:
Hooded Vultures in East Africa occupy only 12% of the landscape. Climate, elevation, and land cover shape their distribution. Conservation beyond protected areas is urgent to safeguard this declining species.

DOI:https://doi.org/10.1016/j.baae.2025.12.010
@gfoesoc.bsky.social

The slope of the red line shows the shift in the onset of flowering as a function of temperature over the spatial gradient and the slope of the blue line shows the shift over the temporal gradient in Vienna. The gray area represents the 95 % confidence interval for both linear regressions, overlapping across the entire possible range. The linear regressions run nearly parallel to each other, illustrating the similarity between both methods. The dots combine mean temperature (x-axis) and flowering time (y-axis) within a year. The boxes represent the temperature ranges of the respective gardens and years.

🌸 New #BAAE article: Flowering shifts response to temperature.

Early-flowering species advance ~7 days per 1°C increase & space-for-time substitutions work well for general patterns but species-specific caution is needed.

DOI:https://doi.org/10.1016/j.baae.2025.10.007
@gfoesoc.bsky.social

Introducing #NSO2026 and #gfoe2026 keynote speaker Céline Boisvenue, research scientist at the Canadian Forest Service in Victoria BC. She works at the interface of management and policy for Canada's greenhouse gas balance.
vist.ly/4prbr
@gfoesoc.bsky.social

Fig. 1. Distribution of the study sites in the municipalities of Jardín and Andes in Colombia. Red dots represent the sun coffee system, the yellow triangles the coffee-plantain intercropping, and the green squares the shade coffee system.

Fig. 2. A) Experimental block. Exclusion treatments from left to right: ant and bird exclosure, bird exclosure, ant exclosure, and open control. B) Exclosure treatments: B1) Grease applied on coffee shrubs to exclude ants. B2) Exclosure treatments and control. B3) Setting up exclosure treatments.

☕🐦 New BAAE article:

Birds and ants interact to control coffee berry borer in Colombian coffee farms. Shade coffee and crop diversification enhance natural pest control, showing biodiversity can boost pest management.

DOI:https://doi.org/10.1016/j.baae.2025.11.002
@gfoesoc.bsky.social

We are excited to present to you the keynote speakers of #NSO2026 and #gfoe2026! First off is @jessicakabbott.bsky.social, professor of evolutionary genetics at @lund-university.bsky.social, Sweden. She works on the evolution of sex differences and sex chromosomes.
@gfoesoc.bsky.social

Fig. 1. Estimated probability of fruit set for Pink Lady apples across different pollination treatments. Points represent model-predicted posterior means (±95% credible intervals). “Control” refers to open-pollinated flowers exposed to natural pollination, “Emasculation” to flowers with anthers removed to prevent self-pollen deposition, “Self-pollination” to hand-pollinated flowers using pollen from the same cultivar, and “Spontaneous” to flowers bagged throughout anthesis to test autonomous self-pollination. The other treatments represent the cultivar used to hand-pollinate the flowers. Fruit set was modelled as a binary response (1 = fruit set, 0 = no fruit set).

Fig. 2. Fruit weight and seed quality of Pink Lady apples. (A) Estimated fruit weight (g) and (B) estimated proportion of well-formed seeds for fruits that developed following different pollen-donor treatments: Control (open pollination), or hand-pollination with pollen from Fuji, Royal Gala, Granny Smith, or Kanzi. Dots represent individual fruit/seed measurements, while larger filled circles and error bars show model-predicted means ± 95% credible intervals from Bayesian mixed-effects models.

🍎🐝 New BAAE article:

In apples, pollen donor identity strongly affects fruit set, weight & seed quality. Choosing high-performing donors (beyond basic compatibility) can boost orchard productivity and fruit quality.

DOI: doi.org/10.1016/j.ba...
@gfoesoc.bsky.social