Horizon Europe backs inclusive environmental decision-making: Pensoft joins BALANSED

Within the project, Pensoft is to bridge the gap between complex science and accessible digital experiences, playing a central technical and communications role.

Pensoft will lead the communication, dissemination and exploitation activities of the EU Horizon project BALANSED (Biomass Assessment of Land and Sea for Engagement and Deliberation), while also developing innovative digital tools that support informed public participation in environmental decision-making.

As Europe’s Green Deal goal is fast approaching, policy-makers are increasingly faced with tough choices regarding the use of natural resources. The project was inspired by the need for conflict resolution as main objectives, such as the expansion of renewable energy infrastructure, the protection of biodiversity and the securing of food production have started to compete with one another. Scientific models are good at predicting the environmental impact of various actions, but not so good at factoring in the views, interests and priorities of people who will be directly affected by those decisions. 

That is where BALANSED comes in. 

The Project:

This 54-month project, between 1 June 2026 and 30 November 2030, funded under Horizon Europe, aims to change the way environmental planning and natural resource management is carried out across Europe. Advanced scientific modelling joins forces with community driven deliberation to ensure that climate and environmental policies are not only scientifically sound, but also socially fair, transparent and broadly supported. 

BALANSED is an EU project helping citizens, policymakers, and scientists make better decisions about the environment – balancing land and sea use, biodiversity, and local economies.

It will turn complex environmental data into simple, understandable indicators, so communities can clearly see how different choices affect them. The tools will be tested in six local study regions and two cross-regional ones, tackling issues like water shortages, farming, forestry, and ocean management.

The project will also launch an Online European Public Deliberation Platform and Deliberation Toolkit to support informed public debate on environmental planning across all European regions.

Between 8 and 9 June 2026 representatives from all 13 partner organisations met in Wageningen, Netherlands, to kick off the project. 

Central discussions focused on how environmental decisions can better balance ecological and societal needs. A key theme was the importance of involving citizens, researchers, and policymakers together from day one.

Pensoft’s role:

Pensoft bridges the gap between complex science and accessible digital experiences, playing a central technical and communications role in BALANSED across three key areas:

  • Digital tools – as lead of Work Package 6, Pensoft will turn scientific data and models into intuitive digital interfaces, including online deliberation software and tailored digital environments for each of the study regions
  • EU-wide platform – Pensoft will build the final Online European Public Deliberation Platform, integrated directly with the European Commission’s Joint Research Centre to support decision-making across all European regions
  • Communications & impact – drawing on its expertise in science communication, Pensoft leads Work Packages 8 and 9, ensuring the project’s findings are widely shared and put to use across Europe

Project partners: 

  1. Stichting Wageningen Research (WR) – https://www.linkedin.com/company/wageningenenvironmentalresearch/ ; https://bsky.app/profile/wurenvironmental.bsky.social 
  1. Wageningen University – https://www.linkedin.com/school/wageningenuniversity/ ; https://bsky.app/profile/w-u-r.bsky.social 
  1. Internationales Institut Fuer Angewandte Systemanalyse  – https://www.linkedin.com/company/iiasa-vienna/ ; https://bsky.app/profile/iiasa.ac.at 
  1. Gfz Helmholtz-Zentrum Für Geoforschung – https://www.linkedin.com/company/gfz-helmholtz-zentrum-fuer-geoforschung/ ; https://bsky.app/profile/gfz.bsky.social
  1. Istituto Nazionale di Oceanografia e di Geofisica Sperimentale Ogs – https://www.linkedin.com/company/istituto-nazionale-di-oceanografia-e-geofisica-sperimentale/ ; https://bsky.app/profile/ogsit.bsky.social
  1. Pensoft Publishers – https://www.linkedin.com/showcase/pensoft-project-services/about/ ; https://bsky.app/profile/pensoft.net 
  1. Cooperativas Agro-alimentarias – https://www.linkedin.com/company/coopsagroes/posts/?feedView=all ; 
  1. Unión Regional de Cooperativas Agrarias de Castilla y León (URCACYL) 
  1. Cooperativas Agro-alimentarias Castilla-La Mancha (CALCM) 
  1. Society for Territorial and Environmental Prosperity
  1. Gozdarski inštitut Slovenije – https://www.linkedin.com/company/gozdarski-in%C5%A1titut-slovenije-slovenian-forestry-institute-sfi/ 
  1. Zavod za gozdove Slovenije – https://www.linkedin.com/company/zavod-za-gozdove-slovenije/ 
  1. Mittetulundusühing Ökoloogiliste Tehnoloogiate Keskus (CEET) 

Coordinators: Berien Elbersen & Tomaso Ceccarelli from Wageningen Environmental Research

BALANSED website coming soon! 

Follow us on LinkedIn and Bluesky to stay updated 

The Blue Crab Emergency: How a Small Spatial Scale Fueled a Massive Invasion in the Northern Adriatic

The Atlantic blue crab (Callinectes sapidus) continues to spread rapidly in the northern Adriatic Sea.

Guest blog post by Chiara Facca

The Atlantic blue crab (Callinectes sapidus) is ranked among the 100 worst invasive species in the Mediterranean Sea. In the spring and summer of 2023, the Northern Adriatic experienced an unprecedented demographic outbreak of the species. To understand why this explosion happened so quickly and how to manage it, a team of researchers from Ca’ Foscari University of Venice and other Italian institutes set out to study the crab’s biology and ecology. The results have been published in the open-access journal Aquatic Invasions.

From Precaution to Emergency

Left ImageRight Image

Atlantic blue crab (Callinectes sapidus). Images credit to Marco Boschiero.

The continuous spread of the species in the years leading up to our study prompted us to monitor its population, as very little was known about it in our area.

explains Chiara Facca of Ca’ Foscari University of Venice and one of the researchers.

Because the blue crab is a highly versatile predator that targets bivalve mollusks, researchers were deeply concerned about the potential threats to local sectors, particularly traditional small-scale lagoon fisheries and Manila clam farming in the region.

The original goal was to prevent future damage, but right at the start of the study, the crab’s population turned into a real emergency, forcing the team to adapt their research objectives to manage the crisis.

The “Small Scale” Advantage: A Perfect Storm for Proliferation

Map of sampling stations near Chioggia
Map of sampling stations near Chioggia: CHN and CHS (Venice Lagoon), PELL (Adriatic coast), and BR (Brenta River mouth). Credit to Boschiero et al., 2026

One of the most critical discoveries from the research is that these invasive crabs are completing their entire, complex life cycle within an incredibly small area comprising of a spatial gradient of just 2 to 9 kilometers separating riverine, lagoon, and marine habitats.

Why does this matter? In the crab’s native range, such as the Chesapeake Bay in the United States, female blue crabs often have to migrate massive distances, up to 150-200 kilometers, to reach the higher-salinity open sea to spawn. This long migration often forces females to overwinter mid-journey as temperatures drop, significantly extending the time it takes to successfully spawn.

Female blue crab specimen tangled in a net in the Venice Lagoon.
Female blue crab specimen tangled in a net in the Venice Lagoon. Credit to Federico Riccato.

In the Northern Adriatic, the close proximity of the Brenta River, the Venice Lagoon, and the Adriatic Sea allows the reproductive cycle to occur much more rapidly. Because females do not have to undertake long migrations, they avoid the need to overwinter, which likely allows them to spawn eggs two or three times within a single reproductive season. This spatial compression, combined with the crabs’ high fecundity – averaging over 2 million eggs per mass, with peaks reaching nearly 6 million – accelerates the species’ proliferation and makes the population incredibly difficult to control.

A Surprising Discovery at the River Mouth

Blue crab eggs in an early stage of maturation viewed under a stereomicroscope.
Blue crab eggs in an early stage of maturation viewed under a stereomicroscope. Credit to Marco Boschiero.

We were remarkably surprised by the speed at which the species adapted and proliferated across the region. Our findings demonstrate that the Northern Adriatic Sea provides the ideal environmental conditions for this species to thrive.

the team explained.

However, the data revealed a fascinating paradox regarding where the crabs were found versus how healthy they were.

While male crabs were highly abundant at the Brenta River mouth station (an oligohaline, or low salinity, environment), they exhibited a significantly poorer “relative condition factor” (a measure of weight and health) compared to crabs in the lagoon and marine stations. The study suggests this lower condition factor is due to the high energy the crabs must consume for osmoregulation in lower-salinity waters, coupled with a lack of their favorite food source, the bivalve mollusks, which are far more abundant in the nearby coastal and lagoon habitats.

Targeted Management: What Can Be Done?

Blue crab catches tangled in nets in the Venice Lagoon
Blue crab catches tangled in nets in the Venice Lagoon. Credit to Federico Riccato.

Eradicating the Atlantic blue crab is virtually impossible due to its high adaptability, rapid mobility, and ubiquitous distribution across the Mediterranean. However, the researchers emphasize that targeted management strategies are highly feasible.

Blue crab specimens caught with a crab pot.
Blue crab specimens caught with a crab pot. Credit to Marco Boschiero.

Control measures should exploit specific life-history events observed in the study. For instance, the research confirmed that females consistently migrate to higher-salinity marine waters during the spring and summer to spawn. By concentrating harvesting efforts on females during this spawning period at critical geographic bottlenecks, such as lagoon inlets and river mouths, authorities could significantly control population abundance. This targeted approach is essential for mitigating the severe economic impacts on local ecosystems, traditional small-scale fisheries, and clam aquaculture.

Looking Ahead

While this study serves as a critical baseline for understanding the blue crab dynamics in the Northern Adriatic Sea, the research team warns against making assumptions. Many facets of the species’ biology, ecology, and behavior in this invaded range remain unexplored, and these traits may not perfectly mirror those observed in its native habitat or other invaded regions globally. There is still a vast amount of research to be done to fully comprehend and manage this unprecedented ecological phenomenon.

Original source:

Boschiero M, Facca C, Cavraro F, Redolfi Bristol S, Gavioli A, Riccato F, Zucchetta M, Franzoi P (2026) Ecology and biology of Callinectes sapidus in the Northern Adriatic Sea: could the small spatial scale explain its outbreak? Aquatic Invasions 21(1): 49-72. https://doi.org/10.3391/ai.2026.21.1.180751 

New Beetle Genus Named After One Piece’s Monkey D. Luffy, Encompassing Two New Species

New beetle genus named after a character from the famous anime and manga One Piece, with two new species described within.

A research team from the Natural History Museum of Denmark has published a compelling new study in insect taxonomy in the open-access journal ZooKeys, officially establishing a new genus of rove beetle (Staphylinina): Luffy gen. nov. The inspiration for the name comes directly from Monkey D. Luffy, the iconic protagonist of the globally popular manga and anime One Piece.

Why Name a Beetle Genus “Luffy”?

The research team noted that naming the new genus Luffy was not merely for fun, but rather a direct reflection of the beetles’ highly recognizable morphological characteristics.

Monkey D. Luffy from One Peice and Luffy nika, the newly described beetle.
Monkey D. Luffy from One Piece. Credit to One Piece Wiki. The newly described beetle – Luffy nika. Credit to Hu & Solodovnikov, 2026

The species within this genus possess mandibles, antennae, and maxillary palps that are significantly longer and more slender than those of closely related groups. This uniquely elongated overall proportion immediately reminded researchers of Luffy’s rubber body abilities in One Piece, which allow him to freely stretch and expand.

Two New Beetles in the New Genus

Currently, two distinct species have been discovered and classified under this new genus: Luffy schillhammeri and Luffy nika.

The species Luffy schillhammeri was found in the broadleaf forests of Yunnan Province, China. The specific epithet of Luffy schillhammeri honors Dr. Harald Schillhammer of the Natural History Museum Vienna, recognizing his long-term and outstanding contributions to the research of rove beetles.

  • Luffy schillhammeri
Monkey D. Luffy with Gear 5.
Monkey D. Luffy with Gear 5. Credit to One Piece and Tempest2x6 via Giphy.

Luffy nika was discovered in Louang Namtha, northern Laos. The specific epithet “nika” originates from Luffy’s legendary Devil Fruit awakening, “Hito Hito no Mi, Model: Nika” (also known as Gear 5). This new species features striking white band-like hairs on its elytra and across much of its body, closely resembling Luffy’s classic, all-white, smoke-shrouded appearance during his Nika transformation.

Luffy nika. Credit to Hu & Solodovnikov, 2026
Luffy nika. Credit to Hu & Solodovnikov, 2026.

Major Scientific Breakthrough: Filling a Key Evolutionary Gap in the Eucibdelus Lineage

Beyond its eye-catching name, this study holds high scientific value. The research team, consisting of PhD student Fang-Shuo Hu and Alexey Solodovnikov from the Natural History Museum of Denmark, systematically reviewed all known genera of the Ocypus-group.

They also included several groups whose taxonomic positions had long been questionable and controversial (such as Acupronotes, Apostenolinus, and Staphylinus). Through the examination of a large number of specimens and rigorous comparisons of subtle morphological features, the team successfully re-evaluated the phylogenetic relationships among these groups and put forward key findings.

Diversity of labrum morphology of Ocypus-group and Staphylinus.
Diversity of labrum morphology of Ocypus-group and Staphylinus. A. Luffy; B. Agelosus; C. Cyanocypus; D. Protocypus; E. Ocypus; F. Eucibdelus; G. Guillaumius; H. Menoedius; I. Parapalaestrinus; J. Paraphytolinus; K. Rhynchocheilus; L. Rhyncocheilus; M. Trichocosmetes; N. Staphylinus.

The research team clearly identified the synapomorphies of the “Eucibdelus lineage” (such as the left mandible possessing dorsal ridge teeth and a completely sclerotized labrum). Interestingly, while the genus Luffy possesses these dorsal ridge teeth, its labrum is not completely sclerotized, and it carries several distinct traits of its own.

Based on this morphological evidence, the research team infers that the genus Luffy is highly likely to be the sister group to the entire Eucibdelus lineage. Highlighting that our understanding of this insect lineage is continuously evolving with new discoveries, the researchers note:

This genus exhibits a unique combination of characters intermediate between the Eucibdelus lineage and other members of the Ocypus-group.

Mandibular morphology of Luffy and Eucibdelus lineage. 

Mandibular morphology of Luffy and Eucibdelus lineage. A. Luffy; B. Menoedius; C. Parapalaestrinus; D. Eucibdelus; E. Rhynchocheilus (Photos A by the authors; photos B-E by Q.-H. Zhao). Abbreviations: Abbreviations: BET: basal extra tooth; DR: dorsal ridge; DRT: dorsal ridge teeth; VR: ventral ridge; VRT: ventral ridge teeth. Credit to Hu & Solodovnikov, 2026.

This discovery successfully fills an important gap in the existing taxonomic framework, providing a new perspective on the evolutionary history of the subtribe Staphylinina.

Inspiring the Next Generation of Scientists

From manga inspiration to publication in a rigorous international scientific journal, the birth of the genus Luffy proves that scientific research can be both serious and highly engaging. The research team looks forward to closing the distance between science and the general public through such an accessible story, raising awareness about the importance of biological taxonomy, and attracting more of the younger generation to dive into biodiversity and taxonomic research with an adventurous spirit just like Luffy’s.

Follow ZooKeys on Facebook, Bluesky and X.

Original source:

Hu F-S, Solodovnikov A (2026) Luffy gen. nov., a new genus of Staphylinina (Coleoptera, Staphylinidae, Staphylininae), remarkable for understanding the Eucibdelus lineage. ZooKeys 1281: 247-264. https://doi.org/10.3897/zookeys.1281.198593

Cover image credit: Luffy nika beetle: Hu & Solodovnikov, 2026; Illustration: One Piece (TV series) Toei Animation and One Piece Wiki.

Alpine butterflies are keeping pace with climate warming, but habitat loss poses the deeper threat

This research challenges the widely held assumption that temperature niche is the primary force shaping the elevational distribution of mountain butterflies.

A new study published in the open-access journal Alpine Entomology has found that alpine butterflies in the Swiss National Park are closely matching the pace of local warming in their range shift to higher elevations.

But the research, conducted by scientists from the University of Würzburg, the University of Lausanne, Hintermann and Weber AG, and the Bavarian Forest National Park, reveals a more nuanced picture: habitat availability was found to be the key driver of butterfly community composition in the Alps.

Erebia euryale. Photo credit: Korbinian Schrauth.

Analysing a recent butterfly survey, the research team found that the proportions of available habitat types explained close to half of all variation in butterfly communities, while elevation on its own accounted for only a small fraction of the difference. The finding challenges the widely held assumption that temperature niche is the primary force shaping the elevational distribution of mountain butterflies.

Lead researcher Korbinian Schrauth, of the Chair of Conservation Biology and Forest Ecology at the University of Würzburg, explained what first prompted the team’s hypothesis:

“The common assumption is that temperature adaptation is the main driving force behind the elevational distribution of butterflies in the Alps. But there are a few cases that appear to be contradictory to this assumption.”

He cited the Peak White, a high-alpine butterfly, which has established colonies on lowland gravel banks, after its high-alpine host plants arrived there via alluvial deposits carried down from higher elevations:

“This and similar examples led us to suspect that the elevational distribution of alpine butterflies might be rather driven by available habitats than by temperatures.”

When the results came in, even the researchers were taken aback by how decisively habitats outweighed elevation as an independent explanatory factor.

“At first we were surprised that the amount of variance explained by elevation on its own was that small, but in the end, it fits quite well with our initial considerations and makes perfect sense given the knowledge of the complex ecology of butterflies.”

The study also found that butterfly communities have become measurably more warm-adapted over the past two decades. This shift was least pronounced at high elevations, which still appear to be dominated by cold-adapted alpine species.

At the same time, the average upslope displacement since 2004 corresponded closely to what would be expected from the local warming recorded in the region, suggesting that butterflies overall are keeping pace with the warming climate.

Euphydryas aurinia. Photo credit: Korbinian Schrauth.

Not all species are faring equally well, however. Those restricted to a narrow range of habitat types showed markedly stronger upward shifts than generalist species, pointing to a particular vulnerability among alpine specialists. As vegetation struggles to keep pace with rising temperatures, specialist butterflies face the added risk of elevational butterfly-hostplant mismatches.

According to Schrauth, the conservation implications are significant:

“One of the implications of our study is that, besides reducing carbon emissions, the protection of alpine habitats is the most important measure for preserving the diversity of alpine butterflies.”

To keep track of future changes, the authors recommend repeating the surveys in the Swiss National Park at roughly ten-year intervals, though Schrauth acknowledged that more frequent monitoring would be preferable.


Original source:

Schrauth K, Plattner M, Müller J, Pellet J (2026) Habitat availability shapes composition and climate change response of alpine butterfly communities. Alpine Entomology 10: 121-135. https://doi.org/10.3897/alpento.10.186978

Cover image:

Butterflies gathering at damp areas of the ground to take up nutrients; such gatherings can give a quick insight into the composition and diversity of alpine butterfly communities. Credit: Korbinian Schrauth.

Pensoft at the World Biodiversity Forum 2026

Between 14-19 June, the 4th World Biodiversity Forum (WBF) brought together ~1,100 participants from 70 countries in Davos, Switzerland. This highly regarded event was held under the theme “Leading Transformation Together,” and united science, arts, society, and business across generations and fields to build the leadership and networks essential for effective biodiversity protection and resilience.

The event spanned 10 thematic tracks, covering topics such as biodiversity-ecosystem functioning, legislation and biodiversity, connecting science, society and practice, and many more.

4th World Biodiversity Forum opening ceremony
The opening ceremony at the 4th World Biodiversity Forum in Davos, 2026.

Pensoft had the largest exhibition stand at the forum, and throughout the week it saw a steady flow of attendees interested in the company’s work across EU-funded projects and scholarly publishing, with dissemination materials for both on display.

Pensoft’s stand at the World Biodiversity Forum 2026

  • Pensoft's stand at WBF 2026.
  • Pensoft's stand at WBF 2026.

At the heart of Pensoft’s presence at the forum were four EU Horizon-funded projects working to turn biodiversity science into action on policy: BioAgora, OBSGESSION, B-Cubed, and OneStop.

As an active consortium partner in each, Pensoft draws on decades of experience in science communication, stakeholder engagement, and data management to help move that work forward. The stand also featured two further policy-oriented projects, CO-OP4CBD and RESPIN,

Beyond the projects on display, attendees also had the chance to explore Pensoft’s extensive open-access journal portfolio, including flagship titles such as ZooKeys, PhytoKeys, and MycoKeys, Biodiversity Data Journal .

Attendees also had the chance to learn more about the ARPHA Platform, Pensoft’s self-developed end-to-end publishing solution that streamlines the entire editorial workflow –  from manuscript submission and peer review through to editing, publication, and archiving – ultimately making research easy for both people and machines to access, cite, and reuse.

Brochures for Pensoft's journals - MycoKeys, PhytoKeys and ZooKeys featuring the beautiful illustrations by Denitsa Peneva.
Brochures for Pensoft’s journals featuring the beautiful illustrations by Denitsa Peneva.

While at the booth, visitors also had the opportunity to learn more about Pensoft’s diamond open-access journals, including Individual-based Ecology, the recently relaunched Agricultural and Environmental Modelling, and the newly launched Advances in Pollinator Research, as well as the more ecology and conservation-focused journals such as One Ecosystem, Nature Conservation, Frontiers of Biogeography and more.

Attendees were able to speak directly with members of the Pensoft team, who were on hand to walk them through the journals’ scope, submission processes, and the broader vision behind the diamond open-access model – publishing that is free for both authors and readers.

Brochures for Pensoft's journals featuring the beautiful illustrations by Denitsa Peneva.
Journals and brochures published by Pensoft featuring illustrations by Denitsa Peneva.

Communicating science across different audiences

As leaders and innovators in the move toward open, FAIR and linked biodiversity data, the Pensoft team took an active role in the session CON4: Biodiversity Evidence – Extracting and Liberating Biodiversity Knowledge from Scientific Literature, joining long-time collaborators from Plazi, Wikimedia Foundation, Biodiversity Literature Repository, SIB Swiss Institute of Bioinformatics, and Muséum national d’Histoire naturelle.

  • Alexandra Korcheva presenting at the WBF 2026.
  • Alexandra Korcheva presenting at the WBF 2026.
  • BioAgora, Selina, COOP4CBD and Respin among the mentioned projects at WBF 2026.

During this session, Pensoft’s talk, “From FAIR Data to FAIR Policy: Strengthening the Biodiversity Science-Policy Interface through Open Science,“ examined how FAIR data principles and open sicence practices can strengthen the biodiversity science-policy interface, drawing on practical examples from EU-funded projects including BioAgora, SELINA, CO-OP4CBD, and RESPIN.

Pensoft’s team also contributed to the session Telling the Future: The Significance of Environmental Narratives – Communication and Transdisciplinarity, delivering a second presentation titled “Communicating Science to Policy: The Perspective of EU-funded Research Projects for Building a Joint Narrative, Collaboration and Impact Across the Biodiversity Science-Policy Interface”.

  • Desislava Raykova presenting at WBF 2026.

The presentation explored how a shared narrative can drive collaboration and increase impact among policy-oriented projects working at the science-policy interface, showing how such efforts can be brought to life through policy briefs, illustrations, and interactive science-policy events. The talk drew on communication successes from B-Cubed, OBSGESSION, OneStop, BioAgora, RESPIN and CO-OP4CBD.

This year’s forum offered an opportunity to forge strong networks across policy, science, arts, and business – catalysing future action and, in doing so, to leading transformation together. The next World Biodiversity Forum will be in 2028, so stay tuned to learn more from us!

Don’t miss out on our latest updates, follow Pensoft on LinkedIn, Facebook, Bluesky, X, Instagram and TikTok.

Pensoft launches new peer-reviewed Journal of Regeneration to cover restorative biology across species

The journal intends to cover research ranging from fundamental molecular genetics to clinical translation.

Scholarly publisher and technology provider Pensoft teamed up with senior research fellows in the field to launch Journal of Regeneration (JoR), a new open-access peer-reviewed journal established to promote a transversal biological perspective connecting developmental biology, evolution, ecology, agriculture, and medicine. JoR aims to explore regeneration – the ability to restore lost or damaged tissues, organs, or entire body structures, across diverse disciplines and kingdoms of life.

The journal intends to cover research ranging from fundamental molecular genetics to clinical translation. Specifically, it seeks to examine recurring principles shared between animals and plants, including cellular plasticity, injury-triggered signalling cascades, and epigenetic remodelling. 

“Regeneration research stands at a historic moment. What began as curiosity-driven observation has matured into a multidisciplinary field with profound implications for biology and medicine.”

The Editorial Board

Its scope encompasses a wide variety of animal and plant models rather than limiting focus to a few standard species. JoR covers research leveraging modern analytical tools, such as single-cell transcriptomics, CRISPR/Cas9 genome editing, transgenesis, and mass spectrometry. Key areas of long-term support outlined by the journal include systems-level understanding, evolutionary regeneration biology, bioengineering, and the intersection of ageing and regeneration. 

The international team of researchers who will lead the journal comprise Dr. Anna Czarkwiani of the Technische Universität Dresden, Prof. Loriano Ballarin of the Università degli Studi di Padova, and Prof. Baruch Rinkevich of the Israel Oceanographic and Limnological Research Institute. 

“I am super excited to be part of building the Journal of Regeneration. I envisage it to become a wonderful platform for regeneration researchers, a way to not only share ideas and resources but perhaps in the future to be integrated in taking an active role in our scientific community.”

Anna Czarkwiani

“I am fully convinced of the goodness of launching the Journal of Regeneration: the future of regeneration science requires dialogue among scientists working on different aspects of the discipline and the JoR is a good tool to foster communication.”

Loriano Ballarin

“I see the Journal of Regeneration as a place where renewal and discovery align, where living systems learn to rebuild and redefine. It gathers voices across biology’s widening frame, to understand how life restores itself again and again.”

Baruch Rinkevich

Powered by Pensoft’s ARPHA platform, the journal will notably offer a fully integrated experience that smoothly coordinates everything from submission and peer review to publication, indexing, sharing, and archiving. Notably, publication in the journal is free during its launching phase.

The founding premise of the journal highlights that understanding regeneration requires exploration across the entire spectrum of life. Thus, JoR aims to serve as a convergence point for traditionally separated fields. Fostering this collaborative dialogue will help accelerate the important shift from studying regenerative mechanisms to actively harnessing them for therapeutic innovation.

Read more about the rationale and aims of the Journal of Regeneration (JoR) in the newly published Editorial Letter.

For more information on the journal’s focus, scope, and guidelines for authors, visit the Journal of Regeneration website and follow us on Bluesky and LinkedIn.

***

About Pensoft:

Founded in 1992 “by scientists, for scientists”, the academic open-access publishing company is well known worldwide for its novel cutting-edge publishing tools, workflows and methods for text and data publishing of journals, books and conference materials. Back in 2010, Pensoft became the first scientific publisher to introduce semantic enrichments in scholarly publications. Through its Research and Technical Development department, the company is involved in various research and technology projects. 

About ARPHA Platform:

ARPHA is a full-featured, end-to-end publishing platform for journals, books, conference materials and preprints. ARPHA offers flexible operating and business models, and a wide-range of automated and human-provided services. The ARPHA team places a special focus on its scholarly communication solutions designed to leverage the visibility and outreach of academic output, while promoting inclusivity and engagement. 

Scrolling for Science: How a Twitter Post Discovered a New Wasp in Fukuoka, Japan

Indeed, the next time you post a nature photo online, you might be contributing to a major scientific breakthrough.

The next time you post a nature photo online, you might be contributing to a major scientific breakthrough – just as several citizen scientists did when they helped discover the wasp Eupelmus curvator in Japan.

When a series of photos appeared on Twitter (now X) showing an iridescent wasp laying eggs on a praying mantis egg case, researchers from the Kyushu University Museum realised they weren’t looking at a common garden insect. Instead, they were witnessing a species never before seen in Japan: Eupelmus curvator.

“The discovery was made possible through social media,” said Taisuke Kawano, the lead researcher and a specialist in eupelmid wasps at the Kyushu University Museum.

“It all started with a post by a general user who shared a photo capturing a wasp emerging from a mantis egg case. A colleague of mine noticed the post and forwarded it to me via direct message.”

The wasp is the first record of Eupelmus curvator in Japan, a species previously known only to inhabit China. Perhaps more significantly, the recent study provided the first formal scientific description of the male of the species, which had remained a mystery until now.

Eupelmus (Eupelmus) curvator: female habitus. Photo credit: Taisuke Kawano et al., 2026.

A Rare Egg Hunter

“Eupelmus curvator is particularly interesting because it parasitises the egg cases of praying mantises.

While some other genera in Eupelmidae are specialised egg parasitoids, most species of Eupelmus attack larvae or pupae of other insects, and only very few are known to develop inside mantis oothecae. This makes Eupelmus curvator a rather unusual and biologically intriguing species.”

Taisuke Kawano

The researchers confirmed that the wasp targets the Narrow-winged Mantis (Tenodera angustipennis), turning the mantis’ future offspring into a nursery for its own young. In one case, a single mantis egg case collected in Fukuoka yielded 77 wasps and only a few surviving mantis nymphs.

Digital Collecting: The Future of Citizen Science

The research, published in the open-access journal Travaux du Muséum National d’Histoire Naturelle “Grigore Antipa”, highlights a growing trend in biodiversity research: utilising digital collecting to find rare species.

In the spring of 2018 and again in 2021, citizen scientists and nature enthusiasts posted images and videos of the wasps’ behaviour on Twitter. Through direct communication on the platform, these users sent specimens to Kawano for identification.

“Social media is becoming an increasingly important tool in citizen science. One of its greatest strengths is that it effectively increases the number of ‘eyes in the field.’ These observations often come from places and times that researchers would not normally be able to cover.

When particularly interesting records appear, we can contact observers directly via social media, and in some cases obtain specimens for further study.”

Taisuke Kawano

To document the tiny find – females measure only about 2.2 to 3.2 mm excluding the ovipositor – the team used advanced macro photography and focus stacking technology to create hyper-detailed images of the wasp’s anatomy.

Eupelmus (Eupelmus) curvator ovipositing on mantis ootheca at Kyushu University Ito campus, Fukuoka. Photo credit: Taisuke Kawano et al., 2026.

Science in Your Backyard

The discovery suggests that even in well-studied regions like Japan, there is a wealth of biodiversity to be uncovered. The key, according to Kawano, is that scientists are now finding it in new ways:

“One of the most exciting aspects is how social media is changing the way we conduct research. The social media platforms allow researchers to encounter observations that would otherwise remain unnoticed, effectively transforming everyday posts into valuable scientific data.”

As for his own social media habits? Kawano admits the line between work and leisure has blurred:

“Personally, I sometimes joke that even when I am browsing social media, I am actually working. And it is sometimes true… though not always.”


The research was supported by grants from the Robert T. Huang Entrepreneurship Center of Kyushu University and the Japan Society for the Promotion of Science.

Cover image illustration by Kanji Toyosaki.

Original source:

Kawano T, Imada S, Noguchi S, Toyosaki K (2026) When your posts yield biodiversity findings: social media-facilitated discovery of Eupelmus (Eupelmus) curvator Yang (Hymenoptera, Eupelmidae) in Japan with notes on its bionomics. Travaux du Muséum National d’Histoire Naturelle “Grigore Antipa” 69(1): 1–12. https://doi.org/10.3897/travaux.69.e171809

Extreme Weather Impacts White Stork Survival in Bulgaria

A comprehensive 15-year study published in the Biodiversity Data Journal details the growing threat of extreme weather on White Storks in Bulgaria.

A comprehensive 15-year study published in the Biodiversity Data Journal details the growing threat of extreme weather on White Storks (Ciconia ciconia) in Bulgaria. Long considered a symbol of good fortune and the arrival of spring, white storks hold a cherished place in Bulgarian folklore – their nesting on rooftops traditionally seen as a blessing upon the household.

The research, which is part of the topical collection “Restoration of species of conservation importance,” analyzes the admissions and treatment outcomes of injured storks at the Wildlife Rescue and Breeding Centre (WRBC) of the Green Balkans NGO between 2010 and 2025.

Led by Rusko Petrov alongside Eva Pastir of Trakia University and Gradimir Gradev of the Agricultural University of Plovdiv, the study examines how extreme weather events, specifically sudden spring frosts and wildfires, affect White Stork survival.

Map of the locations where distressed birds have been found - in blue are the locations where White Storks from the first category were found, in red are the ones from the second category. The green dot is the location of the Wildlife Rehabilitation and Breeding Centre of Green Balkans.
Map of the locations where distressed birds have been found – in blue are the locations where White Storks from the first category were found, in red are the ones from the second category. The green dot is the location of the Wildlife Rehabilitation and Breeding Centre of Green Balkans. Credit to Petrov, Pastir & Gradev, 2026.

Of 3,690 storks admitted to the WRBC over the 15-year period, researchers focused on 158 cases attributable to storms, hailstorms, strong winds, snowfalls with low temperatures, and wildfires.

A Tale of Two Disasters

Piechart showing the percentage of storks admitted due to burnt and collapsed nests between 2010-2025
Percentage of storks admitted due to burnt and collapsed nests between 2010-2025. Credit to Petrov, Pastir & Gradev, 2026.

The results revealed a stark contrast in survival depending on the type of weather event. Overall, 49% of the extreme weather victims (77 birds) were successfully rehabilitated and released back into the wild, while 51% (81 birds) of the cases were fatal. Only two birds remained permanently disabled and were transferred to other facilities.

Notably, juvenile storks are exceptionally vulnerable to extreme conditions because they are unable to flee the nest. This is particularly tragic during wildfires, which destroy nests and trap the flightless young while adult birds flee. Consequently, survival rates for fire-related incidents were strikingly low at just 33% (32 out of 97 cases). In contrast, storks affected by storms, hailstorms, and sudden snowfalls had a significantly higher rehabilitation success rate of 74% (45 out of 61 cases).

The Climate Change Connection

White stork
White stork. Photo via Canva.

The researchers identified distinct geographic and climatic patterns linked to these rescues. Wildfires primarily clustered in the warmer Upper Thracian Plain, driven by prolonged summer heatwaves and human factors. Meanwhile, cold-related rescues were prevalent in the Danubian Plain, where cold continental air masses invade during winter and early spring.

These geographic patterns are consistent with global warming trends.

Warmer winters are prompting storks to migrate earlier, exposing the returning adults to sudden, deadly spring frosts and blizzards.

explain the researchers.

Simultaneously, the increasing frequency of summer heatwaves is fueling the nest-destroying wildfires that threaten the juveniles. Petrov also notes broader implications for other species: 

Our research is focused on White Storks, but the impact is similar to many other bird species and most sensitive to it are the migratory and endangered ones.

he explains.

To safeguard the White Stork, the authors underscore the urgent need for enhanced nest protection, improved wildlife rescue efforts, and proactive climate adaptation strategies to conserve the species.

Original source:

Petrov R, Pastir E, Gradev G (2026) Impact of extreme weather on White Stork (Ciconia ciconia) rehabilitation: admissions and outcomes (2010-2025). Biodiversity Data Journal 14: e182547. https://doi.org/10.3897/BDJ.14.e182547

New spatially explicit population model – APODEMUS to improve pesticide risk assessments in agricultural landscapes

A formal model published in the open-access Agricultural and Environmental Modelling Journal describes the development of APODEMUS, which aims to improve risk assessments of pesticides for the wood mouse (Apodemus sylvaticus) in European agricultural landscapes.

A team of international scientists and risk assessment experts has developed a foundational blueprint for an innovative population model, designed to improve environmental safety testing for agricultural pesticides. The tool, named APODEMUS (A POpulation Dynamical spatially Explicit Model of the wood moUSe), was recently published as a “Formal Model” – a novel article type, in the Agricultural and Environmental Modelling journal.

Bridging the Gap Between the Lab and the Field

Currently, environmental risk assessments rely heavily on laboratory toxicity tests (often using Norway rats instead of wild mice) and field studies. While field studies are realistic, they are highly expensive, time-consuming, and are often limited to a few specific locations, crops, and weather conditions.

Wood mouse (Apodemus sylvaticus)
Wood mouse (Apodemus sylvaticus). Photo credit to Laura Fokkema via Canva.

The wood mouse (Apodemus sylvaticus) is extremely common across Europe and lives in a wide variety of habitats, including farmlands. Because they eat a broad diet of seeds, plants, and insects, they frequently forage in agricultural fields. Consequently, the European Union uses the wood mouse as a primary “focal species” to evaluate whether a plant protection product (pesticide) poses an unacceptable risk to small mammals.

APODEMUS acts as a virtual testing ground

By creating a population model, scientists can simulate complex, real-world agricultural landscapes and farming scenarios to predict how pesticide exposure impacts animal survival and reproduction over the long term.

How does it work?

Overview diagram of the conceptual population model for APODEMUS.

Overview diagram of the conceptual population model for APODEMUS. The model simulates the wood mouse life cycle, growth and reproduction. Landscape composition is captured by habitat types (numbers) and influences the space use of the simulated wood mice. Exposures can be linked to the use of defined habitat patches and types. Credit to Singer et al., 2026.

Published as a Formal Model (a new peer-reviewed publishing format designed to make modelling research FAIR (Findable, Accessible, Interoperable, and Reusable) by enabling scholarly credit for diverse research outputs and enhance the transparency and rigor of complex ecological and systems modelling). The current study focuses on the “conceptual model“,  meaning the researchers have defined the biological and ecological rules the computer program will follow, essentially building a highly realistic “virtual wood mouse” before adding the complexities of exposure and effects of Plant Protection Products (PPPs) such as pesticides.

What differentiates APODEMUS from previous models is the explicit implementation of “Dynamic Energy Budget” that tracks how individual mice convert consumed food into energy for growth, body maintenance, and reproduction. These virtual mice are placed into realistic, grid-based landscapes (like woods, pastures, and crop fields) where they dynamically establish home ranges based on habitat attractiveness, with female territoriality naturally preventing overpopulation. Finally, the model simulates diet-based exposure by correlating the time a mouse spends foraging in specific fields to its food intake, which will be used in future updates to calculate exact pesticide ingestion.

Built on Massive Data and Unprecedented Collaboration

Diagram showing the number of publications providing at least one data item to inform a population model characteristic for the wood mouse
Number of publications providing at least one data item to inform a population model characteristic for the wood mouse. Credit to Singer et al., 2026.

To ensure the simulation is scientifically rigorous and acceptable to government regulators, a massive foundation of real-world data was used. The authors conducted a systematic review of 341 scientific publications, extracting 1,295 specific data points about wood mouse biology.

A key highlight of this study is that the model was built through a collaboration with stakeholders – including ecological experts, risk assessors, and chemical regulators – in a dedicated workshop. By following a European standard for ecological modeling such as the European Food Safety Authority (EFSA) and “Pop-GUIDE,” they ensured that every decision in the model’s design is highly transparent and justified.

What happens next?

The researchers are currently translating this conceptual blueprint into functioning computer code. Once the virtual wood mouse population is up and running, scientists will introduce virtual pesticide applications into the model. This will allow them to evaluate how individual mice absorb toxins, whether they survive, and whether the overall population can recover under various real-world farming scenarios.

Ultimately, APODEMUS offers an innovative foundational blueprint and a practical tool aimed at helping regulators accurately test the environmental safety of agricultural pesticides by simulating their long-term effects on wild animal populations across a variety of realistic landscapes that would be otherwise impossible to assess through physical field studies

Original study:

Singer A, Schmolke A, Becher MA, von Blanckenhagen F, van den Brink N, Grimm T, Ibrahim L, Imholt C, Jacob J, Jakoby O, Laucht S, Løvik AN, Martin T, Muñoz CC, Preuss TG, Galic N (2026) Concept for APODEMUS – a wood mouse population model for pesticide risk assessment. Food and Ecological Systems Modelling Journal 7: e175714. https://doi.org/10.3897/fmj.7.175714

Camera Traps Reveal the True Culprit Behind Crop Damage in Honduras 

Using noninvasive monitoring in eastern Honduras, researchers found that small mammals, not large wildlife like tapirs, drive cassava crop loss, highlighting the need for evidence-based, wildlife-friendly solutions.

Guest blog post by Manfredo Turcios-Casco

Today, 29th June, marks the International Day of the Tropics, a day that reminds us of why understanding tropical ecosystems matters for both wildlife and the communities that depend on them. This new study from the Honduran Mosquitia is a perfect example. 

A new study from the Honduran Mosquitia shows how simple, non-invasive technology can help solve one of the most common challenges in wildlife conservation: identifying the species actually responsible for crop damage. The full detailed results have been published in the open-access peer-reviewed journal Neotropical Biology and Conservation.

Across tropical landscapes, people living near forests often share the same concern: wildlife entering agricultural fields and feeding on crops. In many cases, these interactions can generate tension between local communities and conservation efforts, particularly when threatened species are perceived as the main culprits.

Baird’s tapir (Tapirus bairdii) recorded from one of the trap cameras. Credit to the Wildlife Conservation Society (WCS).

In the Indigenous Miskitu community of Mavita, in eastern Honduras, local people have long reported losses in their cassava (Manihot esculenta) fields, locally known as yucales. Most residents believed that the damage was caused by Baird’s tapir (Tapirus bairdii), an endangered species and the largest terrestrial mammal in Central America. They also suspected that pacas (Cuniculus paca) and armadillos (Dasypus mexicanus) were contributing to crop losses.

But was the tapir really responsible?

To answer this question, researchers from the Wildlife Conservation Society (WCS) installed camera traps equipped with solar-powered motion-activated LED lights around a 10-hectare cassava field located within a mosaic of Caribbean pine forest and tropical rainforest in the Honduran Mosquitia.

Location of the motion-sensor light installed in the cassava field of Mavita, within the Mosquitia region of eastern Honduras, highlighting nearby communities (Mavita and Rus Rus) and the surrounding forest matrix based on the 2018 ICF land-cover classification. Credit to Turcios-Casco et al., 2026

The goal was to document which mammals were actually visiting the crops and evaluate whether these light systems could eventually help reduce crop losses. 

Following the evidence

Over two months of monitoring, the cameras recorded seven mammal species, including tapirs, ocelots, jaguarundis, agoutis, opossums and rabbits. 

Contrary to local perceptions, the species most frequently detected interacting with cassava crops was not the tapir, but the Honduran cottontail rabbit (Sylvilagus hondurensis) – a species that locals did not even know occurred in their plantations. The cameras also found no evidence that armadillos or pacas were feeding on the cassava.

Meanwhile, tapirs were present in the area, but appeared far less frequently than expected. 

Many conservation conflicts begin with assumptions. Without evidence, it is easy to blame large and conspicuous animals. Camera traps allowed us to identify which species were truly interacting with the crops and helped us separate perception from reality.

explains lead author Manfredo Turcios-Casco
@pensoft.publishers

On the #InternationalDayOfTheTropics , here’s a story that shows why understanding tropical ecosystems matters. 👇 📸What if the culprit wasn’t who we thought? Using noninvasive monitoring in eastern Honduras, researchers found that small mammals, not large wildlife like tapirs, drive cassava crop loss, highlighting the need for evidence-based, wildlife-friendly solutions. 📗Read the full study in Neotropical Biology and Conservation open-access journal: https://doi.org/10.3897/neotropical.21.e187958 👉Or check out our blog for more insights from the lead author and researcher, Manfredo Turcios-Casco: https://blog.pensoft.net/2026/06/25/camera-traps-reveal-the-true-culprit-behind-crop-damage-in-honduras/ @Wildlife Conservation Society #tapir #fyp

♬ A moist healing song – Nez Tunes

Why does this matter?

Correctly identifying the species involved in crop damage is more important than it might seem.

Across Latin America, wildlife is often persecuted after being blamed for agricultural losses. In Honduras, Baird’s tapir has historically faced retaliatory hunting in areas where farmers perceive it as a threat to their crops. 

When damage is incorrectly attributed to threatened species, conservation efforts can be undermined while the actual source of the problem goes unaddressed. 

The study highlights how non-invasive monitoring can provide communities and conservation practitioners with reliable information before management decisions are made. 

Technology for coexistence

The project also tested the use of solar-powered motion-sensor lights, sometimes referred to as “silent technology,” as a tool to monitor and potentially deter wildlife activity.

Researchers found that different species reacted differently to the lights. Tapirs tended to show stronger behavioral responses, while rabbits often continued moving through the area despite illumination. These findings suggest that no single deterrent works for every species and that mitigation strategies should be tailored to local ecological conditions. 

Solar-powered LED motion-sensor light interacting with female Tapirus bairdii (A), male Tapirus bairdii (B), and Sylvilagus hondurensis (C).
Solar-powered LED motion-sensor light interacting with female Tapirus bairdii (A), male Tapirus bairdii (B), and Sylvilagus hondurensis (C). Credit to Turcios-Casco et al., 2026

More importantly, the technology proved valuable as a diagnostic tool, helping researchers understand not only which species were present, but also when they were active and how they responded to human-made stimuli. 

Conservation begins with understanding

Solar-powered LED motion-sensor light interacting with Leopardus wiedii (above) and Didelphis marsupialis (below)
Solar-powered LED motion-sensor light interacting with Leopardus wiedii (above) and Didelphis marsupialis (below). Credit to Turcios-Casco et al., 2026

The forests of the Honduran Mosquitia harbor some of the most important wildlife populations remaining in Central America. Yet the long-term conservation of these species depends not only on protecting habitat, but also on fostering coexistence with local communities. 

What surprised me most was discovering that the species most frequently blamed by local people was not the one causing most of the crop interactions.

expressed Manfredo Turcios-Casco

This study demonstrates that effective conservation starts with understanding what is actually happening on the ground. Sometimes the evidence confirms what people already suspect. And sometimes it reveals that the animal everyone blamed was innocent all along. 

Acknowledgments
This article was produced by the Wildlife Conservation Society (WCS), with technical support of the community of Mavita and the financial support from the Fondo para el Manejo de Áreas Protegidas y Vida Silvestre (FAVPS) and the Biodiverse Landscapes Fund (BLF), funded by UK International Development. The views expressed do not necessarily reflect the official policies of the UK Government.

Original source

Turcios-Casco MA, Jolon-Morales MR, Padilla B, Scott E, López CM (2026) From forest mosaics to yucales: noninvasive monitoring untangles mammal–crop interactions in eastern Honduras. Neotropical Biology and Conservation 21(2): 173-188. https://doi.org/10.3897/neotropical.21.e187958