Guest blog post by Dr. Azhar M. Al-Khazali (University of Sumer, Iraq) & Tuqa A. A. Al-Mshrfawy
For nearly half a century, the ground spider Gnaphosa jodhpurensis was known only from India and China, with a doubtful mention from Pakistan. Since its original description in 1977, no photographs, morphological illustrations, or detailed documentation of this elusive species had ever been published again — until now.
Female Gnaphosa jodhpurensis. A. Dorsal view. B. Ventral view
During a biodiversity survey in southern Iraq, as part of the MSc research of my student Tuqa A. A. Al-Mshrfawy at the University of Sumer, we made an unexpected discovery. In the semi-desert landscapes of Dhi Qar Province, we collected several specimens of a ground spider that looked remarkably unfamiliar. Careful morphological examination and DNA barcoding confirmed what we could hardly believe: it was Gnaphosa jodhpurensis — a species never before recorded from Iraq, nor from any country in the entire Middle East region.
Known distribution records of Gnaphosa jodhpurensis. Squares = previous records; circles = new records from Iraq.
Our study, now published in the journalCheck List, officially reports the first record of G. jodhpurensis from Iraq and the Middle East, extending its known range by thousands of kilometers westward. The paper also provides the first-ever photographic documentation and detailed morphological description of this species since it was discovered 48 years ago.
Gnaphosa jodhpurensis, female. A. Prosoma, dorsal view. B. Same, ventral view. C. Chelicerae and mouth parts, ventral view. D. Ocular region, anterodorsal view.
This finding highlights not only the hidden biodiversity of Iraq, but also the potential for new discoveries even under modest research conditions. Despite the limited laboratory facilities and financial constraints, our determination to explore Iraq’s arachnid fauna has led to multiple scientific contributions and international publications over recent years.
We hope our work will inspire other researchers across the region to investigate the unique ecosystems of the Middle East and to recognize that important scientific discoveries are still waiting — sometimes, right beneath our feet.
Research article:
Al-Mshrfawy TAA, Al-Khazali AM (2025) First record of Gnaphosa jodhpurensis Tikader & Gajbe, 1977 (Araneae, Gnaphosidae) from Iraq and the Middle East. Check List 21(5): 902-908. https://doi.org/10.15560/21.5.902
With the Grassland Butterfly Index for Germany, UFZ scientists are providing important input for the implementation of the EU Nature Restoration Regulation.
One of the goals of the EU Nature Restoration Regulation, which came into force in 2024, is to halt species loss and preserve important ecosystem services provided by agricultural landscapes.
The results, published in the open-access journal Nature Conservation, show a negative trend, especially in recent years. For their calculations, the researchers were able to draw on 4 million observation data collected at the UFZ over the last 20 years as part of the ‘Butterfly Monitoring Germany’ programme.
Agricultural landscapes are among the most degraded habitats worldwide. Their restoration is one of the key measures for halting global biodiversity loss and preserving important ecosystem services.
“The Nature Restoration Regulation (NRR), which came into force in 2024, is an essential instrument for achieving the restoration targets set for the European Union,” says Prof. Josef Settele, agroecologist at the UFZ. The objectives also include increasing biodiversity in agricultural ecosystems (Article 11 of the NRR), taking into account climate change, the needs of rural areas and sustainable agricultural production. To implement the overall objectives, EU Member States are required to develop national restoration plans and implement concrete measures in terrestrial, freshwater, coastal and marine habitats.
The extent to which the specific measures are effective and the ecosystems develop positively will be determined using indicators. For agricultural landscapes, these are (a) the grassland butterfly index, (b) the stock of organic carbon in cropland mineral soils, and (c) the share of agricultural land with high diversity landscape features. For at least two of these three indicators, the EU regulation calls for an upward trend towards a satisfactory level by 2030. Since natural conditions vary across EU countries and there is a wide range of different land management practices, Josef Settele argues that all EU countries should start by recording all three indicators so that none of them is prematurely dropped.
With the ‘Grassland Butterfly Index’, a research team led by the UFZ has now calculated one of the three indicators for Germany for the first time and published the results in the journal Nature Conservation. The data for this analysis comes from Butterfly Monitoring Germany (Tagfalter-Monitoring Deutschland – TMD), a long-term programme coordinated by the UFZ and the Society for Butterfly Conservation (GfS). Every week during the summer, volunteers count butterflies at fixed locations using a standardised European method.
“Since the TMD was launched in 2005, this has resulted in around four million data records being collected, which provide information on the development of butterfly populations in Germany,” explains one of the co-authors of the publication, biologist Elisabeth Kühn, who coordinates the German Butterfly Monitoring programme at the UFZ.
What does the index show for Germany?
The ‘Grassland Butterfly Index’ tracks the development of populations of 15 butterfly species from 2006 to 2023 that are considered typical inhabitants of various grassland biotopes.
“Four species have increased, five species show a declining trend. For six species, the trend is uncertain, which is probably due to insufficient data and large differences between the locations where they were found,” says the study’s lead author, bioinformatician Alexander Harpke. In the first decade of the period analysed (2006 to 2016), the index for Germany as a whole shows a slightly positive trend – which does not rule out the possibility that this may vary greatly for individual species.
However, if we look only at recent years (2016 to 2023), the index shows a significant decline overall. This mainly affects specialised species such as the Small Blue (Cupido minimus) or the Dingy Skipper (Erynnis tages); generalists such as the Small Copper (Lycaena phlaeas) or the Meadow Brown (Maniola jurtina) are hardly affected.
These results show that the trend for grassland butterflies in Germany during the comparison period corresponds to the trend at European level, which was last determined by Butterfly Conservation Europe in 2025 for all 27 member states.
Butterflies are known to be sensitive to changes in their environment. Land use plays a decisive role in this. “The loss and fragmentation of habitats have a proven negative effect on the long-term survival of butterfly populations. Intensive mowing, nitrogen inputs and pesticides contribute to a deterioration in habitat quality or increased mortality. Species that depend on specific habitats, such as nutrient-poor grasslands, also suffer from a lack of use, e.g. through grazing or mowing,” explains Prof. Thomas Schmitt from the Senckenberg German Entomological Institute (SDEI) in Müncheberg, who is also co-author of the study.
In addition to land use, climate change is increasingly contributing to changes in butterfly fauna. Higher temperatures favour the spread of heat-loving or tolerant species, while species adapted to cooler conditions are in decline.
These dependencies of butterflies on land use and climate change make them excellent indicators of the state of our ecosystems. In addition, they are easy to record – especially by qualified volunteers. Together, these two factors have provided an invaluable database for butterfly monitoring in Germany, which scientists are now evaluating to calculate trends and indicators for reporting under European environmental legislation.
“The significance and representativeness of the indicator could be further increased if government programmes such as Habitats Directive monitoring or nationwide insect monitoring were integrated into the analysis,” says UFZ biologist and co-author of the publication Dr Martin Musche. The same would apply if data from neighbouring countries were included.
Researchers have emphasised the vital role of public reporting in controlling the invasive yellow-legged hornet (also known as the Asian hornet) in Great Britain.
Indigenous to Southeast Asia, the hornet (scientific name: Vespa velutina nigrithorax) was first detected in France in 2004 and has since rapidly spread across western Europe, including Great Britain.
This species poses a serious danger to native pollinators, especially honeybees (Apis mellifera), which lack natural defenses against the hornet’s predation. The hornet’s arrival threatens both biodiversity and the beekeeping industry, with intense predation leading to depleted colony reserves and deaths.
A new research paper published in the open-access journal NeoBiotapresents a simulation model that predicts the hornet’s dispersal and gauges how long official nest-detection efforts could remain effective before being overwhelmed. The model considers natural dispersal, genetic factors such as the production of diploid (and therefore infertile) males and the realistic distribution of public observers in the landscape.
Without public reporting, the study found that hornet populations in Britain could become unmanageable within 3–7 years of undetected spread, overwhelming resources for nest detection and destruction. However, when public and beekeeper reports are incorporated, control efforts can remain effective for at least 10 years, with this window extending based on reporting rates and observer density.
Mean density of undetected nests (per km2), estimated at year six for scenarios involving two incursions per year. A) Average density in scenarios where control is absent B) Under the lowest national reporting probability C) Under the highest national reporting probability. Each scenario was estimated across all 100 simulations.
Proximity to populated areas greatly increases the likelihood of successful nest discovery and destruction as they are much better protected due to frequent sightings and reports. Conversely, nests in remote or sparsely populated zones pose a greater risk of escaping detection and fueling further invasion.
Public awareness campaigns, online reporting tools, and targeted outreach to beekeepers have proved highly effective. For instance, in 2023, nearly 21,000 public reports led to 72 nests being destroyed. Now researchers call for continued improvement of such engagement strategies, especially in vulnerable low-density regions.
Do think you’ve seen a yellow-legged hornet in Great Britain? Report it here.
Original source
Warren DA, Budgey R, Semmence N, Jones EP, Jones B (2025) Public reporting is essential for controlling the invasive yellow-legged hornet: a novel model simulating the spread of Vespa velutina nigrithorax and timescales for control in Great Britain. NeoBiota 101: 25-44. https://doi.org/10.3897/neobiota.101.148570
Researchers from China just described a new species of mountain lizard from the upper Dadu River Valley in the Hengduan mountains of Sichuan Province.
Since 2018, the research team conducted numerous surveys in the upper reaches of the Dadu River. There, they encountered a lizard species that showed unique characteristics not previously observed among known Diploderma species in the region. Through molecular biological analyses and morphological studies, they confirmed that this was indeed a previously unrecognized species and gave it the name Diploderma bifluviale, referencing the location where it was found: the confluence of two rivers, Chuosijia and Jiaomuzu.
Diploderma bifluviale is the 47th species of Diplodermain China. The genus Diplodermais distributed across East Asia and the northern part of the Indochinese Peninsula.
With a length of 6-7 cm, D. bifluviale has many distinctive features, such as its wheat-coloured tongue and unique coloration. Unlike its closest relatives, it lives in semi-arid shrublands in warm-dry valleys at elevations of 2,100 to 2,500 m, residing in arid shrublands with small leaves and scattered rock piles.
“This discovery highlights the understudied biodiversity of the upper Dadu River,” the researchers say in their paper, which was published in the open-access journal ZooKeys.
Research article:
Liu F, Wu Y, Zhang J, Yang G, Liu S, Chen X, Chang J, Xie Q, Cai B (2025) A new species of Diploderma Hallowell, 1861 (Squamata, Agamidae) discovered in the upper Dadu River valley of the Hengduan Mountains, Sichuan, China. ZooKeys 1251: 17-38. https://doi.org/10.3897/zookeys.1251.153705
A new white paper delivers a clear message: protecting biodiversity is not just an environmental issue. It is essential for food security, public health, climate stability, and the global economy.
The authors make a call for a decisive shift: from fragmented initiatives to a holistic, global approach to biodiversity research and policy, already demonstrated during a workshop at the 79th United Nations General Assembly and the Science Summit (UNGA79). A key part of this transformation concerns the role of research infrastructures in connecting science, technology, and policy: from vast biodiversity collections and genomic observatories, to ecosystem “digital twins” powered by supercomputers.
Behind the paper are a network of legal entities based in Europe and holding global interests, which includes biodiversity, ecology, and engineering communities, coordinated by the LifeWatch European Research Infrastructure Consortium (ERIC).
With their combined expertise and through European initiatives, such as Research Infrastructures, e-Infrastructures, the European Open Science Cloud (EOSC), the Digital Twin projects and academic publishers, these communities provide a basis for collaboration in strategically contributing to the implementation of the Kunming-Montreal Global Biodiversity Framework (K-M GBF) targets.
Biodiversity needs to be placed at the centre of the upcoming 2026 UN Summit of the Future and become a core pillar of the agenda after the 2030 deadline for the United Nations Sustainable Development Goals (UN SDGs).
The UN Pact for the Future should include biodiversity as a core pillar: “not only of environmental sustainability, but of equity, security, and intergenerational justice”.
urges the team.
To do this, the authors propose the establishment of a global alliance that will strategically integrate biodiversity conservation into the core priorities of the UN Summit of the Future and the post-SDG agenda.
This alliance is meant to join the voices of researchers, policymakers, indigenous knowledge holders, civil society, and industry to ensure that biodiversity underpins peace, prosperity, and justice as a universal enabler.
The white paper also demonstrates how the research infrastructures collectively contribute to the seven Strategic Considerations of the K-M GBF, outlined here in brief and further detailed in the full publication:
Contribution and rights of Indigenous Peoples and local communities: Ensuring fair recognition and sharing of benefits with indigenous peoples and local communities, thus integrating their knowledge into biodiversity science.
Collective efforts towards the targets of the K-M GBF: Coordinating biodiversity monitoring, databases, and digital infrastructures to track progress towards global conservation targets.
Fulfilment of the three principal objectives of the Convention on Biological Diversity (CBD) and its protocols: Studying or supporting the study of all aspects of biodiversity; and providing public and streamlined access to biodiversity information.
Implementation through science, technology, and innovation: Developing and offering technologically advanced and novel solutions for research, data sharing and management to various users; and promoting open science by publishing research findings and increasingly sharing more facets of the research process.
Ecosystem approach: Developing and implementing technologies that enable a cross-domain, multidisciplinary approach to studying biodiversity and ecosystems; and using holistic, cross-disciplinary methods to understand and predict biodiversity and environmental dynamics.
Cooperation synergies: Collaborating with organisations responsible for implementing the CBD, policy agents, international research projects; and participating in international forums and social, scientific and technical initiatives.
Biodiversity and health linkages: Demonstrating how healthy ecosystems support human health, food security, and resilience to pandemics by supporting interdisciplinary research through bringing together knowledge and data and uncovering links and interactions between humans and the environment.
“With the UN’s ‘Pact for the Future’ currently being shaped, we see a unique opportunity to anchor biodiversity as a unifying thread across global goals that will transform how societies respond to the intertwined crises of climate change, nature loss, and pollution,” say the authors.
The white paper is the latest contribution to the LifeWatch ERIC Strategic Working Plan Outcomes open-science collection meant to provide a one-stop access point to the most important deliverables by the European biodiversity and ecosystem research infrastructure, which is currently undergoing a significant upgrade as a response to the needs of its target communities and stakeholders.
***
Original source:
Arvanitidis C, Barov B, Gonzalez Ferreiro M, Zuquim G, Kirrane D, Huertas Olivares C, Drago F, Pade N, Basset A, Deneudt K, Koureas D, Manola N, Mietchen D, Casino A, Penev L, Ioannidis Y (2025) From Knowledge to Solutions: Science, Technology and Innovation in Support of the UN SDGs. Research Ideas and Outcomes 11: e168765. https://doi.org/10.3897/rio.11.e168765
This publication is part of a collection:
LifeWatch ERIC Strategic Working Plan Outcomes Edited by Christos Arvanitidis, Cristina Huertas, Alberto Basset, Peter van Tienderen, Cristina Di Muri, Vasilis Gerovasileiou, Ana Mellado
Europe’s biodiversity and ecosystem research infrastructure. LifeWatch ERIC provides access to biodiversity and ecosystem data, services and other research products: its virtual workbenches and digital twins for biodiversity science enable researchers worldwide to analyse biodiversity patterns, processes, and changes in ecosystems, and derive evidence-based knowledge for science and policy.
CSC hosts one of the world’s most powerful supercomputers (LUMI), pioneering biodiversity digital twins and climate models. CSC provides critical support for data-intensive projects that link computing, AI, and environmental science.
A federation of hundreds of data centres providing global-scale computing, AI, and data services. EGI enables large-scale analysis of biodiversity and environmental data from sensors and satellites, supporting international collaboration.
A hub for marine research, coordinating Europe’s Digital Twin of the Ocean and global biodiversity data systems, such as WoRMS (World Register of Marine Species). VLIZ drives blue innovation and ocean data integration.
Europe’s infrastructure for marine biology, offering access to organisms, labs, and genomic observatories. EMBRC connects over 70 institutes across 10 countries, supporting research “from genes to ecosystems.”
The largest initiative to digitise and unify Europe’s natural science collections into a single, FAIR-data-based infrastructure. DiSSCo makes museum collections globally accessible, boosting taxonomic, ecological, and environmental research.
A European e-Infrastructure dedicated to building a globally connected, interoperable, and sustainable open research ecosystem, with Open Science at its core. By offering a suite of services covering the entire research lifecycle, guidelines, and practices that support the adoption of Open Access and FAIR data principles across its network of National Open Access Desks in 34 countries, OpenAIRE supports local researchers, funders, and policymakers in aligning with European and global open science policies.
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. Through its Research and Technical Development department, the company is involved in various research and technology projects. Pensoft coordinated the EU project BiCIKL (2021-2024), which established a new community of Research Infrastructures and users of FAIR and interlinked biodiversity data.
The world’s largest computing society, established to foster ethical and responsible innovation. ACM brings global expertise in computing and AI to biodiversity research and policy.
A leading ICT and AI research institute advancing digital infrastructures and open science platforms. Athena connects computing innovation with biodiversity, humanities, and societal challenges.
That’s not just a question for crime shows. It’s also exactly what we want to ask every pollinating insect we catch. Who are you – which species? And what have you done – which flowers have you visited, carrying pollen from one to the next? And these questions are important!
Do you like chocolate? Or maybe coffee? How about apples, strawberries, or cherries? All of them need insect pollinators. Unfortunately, many insects are in decline, threatening the stability of ecosystems. Studying them is more important than ever. Traditionally, researchers relied on field observations of foraging behaviour. But these are time-consuming and can never capture the full picture. That’s why many groups now use genetic approaches, studying the pollen carried by insects. This method is called pollen-metabarcoding, where a short genetic sequence from a specific region (in our case, ITS2) can identify the plant species that pollen belongs to.
There’s just one catch: collecting pollen often means killing the insect. Lethal sampling does have its merits – the preserved specimen can be used to answer other questions in the future, for example. But in our case, it felt counterintuitive. We want to study species that might already be endangered, and killing them could worsen their situation. So we had to find another way.
In the field, we found queen-marker cages easy to use and really helpful to get the genetic material we need for our analyses. Credit: Willi Müller.
Enter: the queen-marker cage. This tool – borrowed from beekeepers – is a plastic tube with a mesh at one end and a plunger at the other. We used it to capture a bumble bee, immobilize it, and remove its pollen. The mesh is also large enough to clip one of the bee’s feet – in insects, this part is called the tarsus. That may sound harsh, but it doesn’t significantly affect the animal. During our collection, we observed those five-footed bumble bees visiting flowers and gathering pollen in the days after release, with no difference to their six-footed counterparts.
The mesh of the queen-marker cage is just big enough for a fine pair of scissors to fit through the holes and allow for precise clipping of the bumble bee’s tarsus, here Bombus lucorum agg.
But why take a bee’s foot in the first place? Many animal groups include cryptic species – species that look almost identical, even to experts. Bumble bees are no exception. The only reliable way to tell these look-alike species apart is through DNA barcoding, often using the COI gene. A single clipped foot provides just enough tissue to barcode the bee itself, in addition to analyzing the pollen it carried.
Of course, the work doesn’t end in the field. Once we had the samples, the real detective work started in the lab. And as everyone with hay fever knows: pollen gets everywhere. To avoid contamination, we processed everything in a special clean lab, wearing full-body protective suits. It may seem over the top, but when you’re working with invisible grains of pollen, even the smallest contamination can skew the results.
As pollen is everywhere, we had to use a special clean lab with the corresponding attire.
And in the end, it worked! Our results matched expectations: we detected a cryptic species (fittingly named Bombus cryptarum), we saw that the longest flowers were visited only by bumble bees with the longest tongues, and the pollen we identified came from plants flowering at our study sites during collection.
Now we have a simple and non-lethal way to gather the genetic material needed to identify pollinators and the flowers they visit, answering ‘Who are you, and what have you done?’ – without adding pressure to vulnerable insect populations.
Studying pollination helps us understand and protect ecosystems. Bombus lucorum agg. and Apis mellifera on Phacelia tanacetifolia. Credit: Anna Wurster.
Orignal source
Edwards A, Gemeinholzer B (2025) Case study of non-lethal sampling for plant-pollinator networks via barcoding and metabarcoding on bumble bees in Germany. Metabarcoding and Metagenomics 9: e141904. https://doi.org/10.3897/mbmg.9.141904
Follow Metabarcoding and Metagenomics on Bluesky and Facebook.
In October 2025, four major institutions in the biodiversity research landscape: TDWG, GBIF, OBIS and GEO BON, will come together as the organisers of the Living Data 2025 conference.
The event is set to be among one of the most crucial international gatherings of the year for experts and stakeholders in the field of biodiversity data. Set to take place in the Colombian capital of Bogotá between 21st and 24th, Living Data 2025 will centre around four core themes:
Open data
Data integration
Biodiversity data application
Community engagement and capacity-building
As an academic publisher with experience and commitment to all these thematic areas, Pensoft will participate in the event in the capacity of an exhibitor and an award sponsor, as well as a symposium host.
The conference delegates will have the chance to learn more about the publisher, its exclusively open-access scholarly portfolio and participation at various international scientific projects when they visit the company’s branded stand.
During the event, the scientific publisher and technology provider will also present the Pensoft Award for the Best Student Oral Presentation, which grants the winner a free publication in an open-access, peer-reviewed journal from our portfolio.
Crucially, Pensoft’s involvement in the Living Data 2025 programme also includes a dedicated four-hour session titled “Long Live Biodiversity Data: Knowledge Transfer and Continuity across Research Projects”.
The symposium will be jointly co-organised by Pensoft, LifeWatch ERIC and the Naturalis Biodiversity Centre. As the title suggests, the session will focus on the longevity of scientific outputs as they are generated, shared and re-used across disciplines, organisations and initiatives. In this context, tools, information hubs and workflows enabling exchanges that truly consolidate the global biodiversity data space over time will be showcased.
In a broader sense, the session will also seek to demonstrate how targeted communication can help transform science results into actionable knowledge by raising awareness among agenda-setters. This will speak to the potential of a multi-level approach to information sharing to bridge the gap between science and policy in relation to increasingly ambitious global environmental objectives.
Multiple projects affiliated with Pensoft will be represented in these deliberations, in order to share a diverse array of relevant insights:
22 October (Wednesday): 10:45 AM – 12:45 PM (UTC/GMT-5)
23 October (Thursday): 10:45 AM to 12:45 PM (UTC/GMT-5)
You can find out more about Living Data, including the details on registering for an in-person or virtual attendance, on the conference’s website. Our session is listed on this page under ID number 6788879.
As an additional note, the organisers of the conference have launched a call for extended abstracts for all speakers at Living Data 2025 that will remain open until 1st October 2025. The participants who opt to publish their conference abstracts in the Biodiversity Information Science and Standards (BISS) journal will enjoy permanent and far-reaching accessibility and discoverability for their conference contributions.
The TDWG network, who launched BISS as their official scholarly outlet in 2017 in collaboration with long-time partner Pensoft, have posted a list of the advantages for submitting an extended abstract, even though they have already had their abstracts accepted by the Living Data 2025 organisers. Amongst the reaslons are many perks typically associated with a conventional research article, such as DOI registration, indexation at dozens of scientific databases, embedded media, tables and supplementary materials, and usage metrics.
European Lepidoptera (butterflies and moths) are generally considered well-known and thoroughly researched. Nevertheless, researchers discover new species every year; most of which are inconspicuous, so-called ‘cryptic’ species, previously overlooked.
Colourful species, on the other hand, have been largely catalogued in Europe as they attract a lot of attention, which made the surprise and delight at the discovery of an extraordinarily striking, and previously unnamed, moth all the greater.
Ingrid-Maria’s carcina (Carcina ingridmariae). Credit: Peter Huemer/Ferdinandeum.
A newly discovered, pink species has now been named Carcina ingridmariae by Peter Huemer, a scientist at the Tyrolean State Museum Ferdinanduem (Innsbruck, Austria). Huemer published his discovery in the open-access journal Alpine Entomology.
According to current knowledge, the moth is widespread in the eastern Mediterranean region: distributed from Croatia across large parts of Greece and Cyprus to Turkey. However, more detailed studies on its distribution are still pending.
Seemingly unmistakable
Ingrid-Maria’s carcina belongs to a species-poor group of butterflies. In Europe, there is only one other species of the same genus, the oak carcina (Carcina quercana).
The oak carcina (Carcina quercana). Credit: mazzeip via iNaturalist.
This widespread moth was described as early as 1775 by the famous naturalist Johann Christian Fabricius based on specimens from Saxony, and is distributed from North Africa across large parts of Europe to the Balkans.
Due to its unusual colour, the species has always been considered unmistakable. In fact, it is so popular even among amateur researchers that it adorns the cover of an important British identification book.
But, hiding in plain sight, was a second species, mistaken for the oak carcina for more than 100 years.
As a result of its apparent unmistakability, Carcina ingridmariae was always misidentified and was first published – incorrectly – as the oak wood carcina from Crete in 1916.
Habitat of Carcinaingridmariae in north Cyprus (eastern part of Five Finger Mountains near Kantara). Credit: Peter Huemer/Ferdinandeum.
It was only the introduction of new molecular identification methods that put researchers at the Ferdinandeum on the trail of the nameless moth. DNA barcodes, also known as genetic fingerprints, showed huge differences of more than 6% between the two species.
Subsequent morphological examination of the sexual organs led to the famous “wow” effect. And, upon closer inspection, the two species could not be confused at all, despite the confusingly similar external appearance of the species: namely, a wingspan of about 2 centimeters, a pink base colour with yellow spots, and strikingly long antennae.
A special gift for a 42nd wedding anniversary
Peter Huemer has described more than 200 species from Europe in 35 years, but is particularly enthusiastic about this new species. He said: “It is without doubt the prettiest species I have encountered in my long scientific career, even though it was still unnamed.”
It was therefore obvious to Huemer that he should dedicate the new species to his wife, Ingrid Maria, on their 42nd wedding anniversary. The researcher justifies this choice of name above all with his wife’s decades of support for his work.
Original source
Huemer P (2025) The supposedly unmistakable mistaken: Carcina ingridmariae sp. nov., a surprising example of overlooked diversity from Europe and the Near East (Lepidoptera, Peleopodidae). Alpine Entomology 9: 51-63. https://doi.org/10.3897/alpento.9.158239
A team of international herpetologists has described a new gecko species that has managed to hide in plain sight among the granite boulders around the western flanks of the Andringitra Massif, in south-eastern Madagascar. “Paragehyra tsaranoro is named after the Tsaranoro valley, where it was first observed,” explains first author Francesco Belluardo from the Department of Bioscience and Territory at the University of Molise (Italy). “It is not only endemic to Madagascar, but also what we describe as a microendemic species—restricted to an extremely small range.”
In this case, P. tsaranoro has only been found in three small forest fragments, all located within approximately 15 kilometers of one another. These patches are remnants of a once-larger and continuous forest that has been destroyed by the widespread deforestation that continues to impact Madagascar’s biodiversity.
“The findings emphasise the importance of conducting research on small forest fragments, as they are essential for completing the inventory of Malagasy herpetofauna,” the researchers write in their study, which was published in the journal ZooKeys.
Given its very limited range and the ongoing threats to its habitat, the authors recommend listing this new gecko as Critically Endangered on the IUCN Red List. Like many endemic species in Madagascar, its existence might be threatened by deforestation, which means destruction and fragmentation of its already limited habitat. The research team, composed also of Angelica Crottini, Javier Lobón-Rovira, Gonçalo M. Rosa, Franco Andreone, Malalatiana Rasoazanany, Costanza Piccoli and Ivo Oliveira Alves call for stronger support for local communities in conserving the species. In fact, most of its known range lies outside Madagascar’s network of protected areas, and the only conservation measures come from reserves managed by local communities—areas created to support sustainable livelihoods and protect local biodiversity.
“Building on previous research in the region, it appears that this landscape is full of hidden biodiversity gems, including other microendemic reptile species found nowhere else in the country. These community-managed reserves act as important refuges for local wildlife,” says Belluardo. “Interestingly, many of these small forest fragments are known locally as ‘Forêts sacrées’, or sacred forests, because they host boulders that serve as ancestral tombs for the local Betsileo people. Protecting this cultural heritage has also helped safeguard local species, suggesting once again that conserving biodiversity often goes hand-in-hand with preserving cultural traditions.”
Belluardo F, Piccoli C, Lobón-Rovira J, Oliveira Alves I, Rasoazanany M, Andreone F, Rosa GM, Crottini A (2025) A new microendemic gecko from the small forest fragments of south-eastern Madagascar (Squamata, Gekkonidae, Paragehyra). ZooKeys 1240: 1-38. https://doi.org/10.3897/zookeys.1240.151016
So, when researchers from the Japan Agency for Marine-Earth Science and Technology (JAMSTEC) discovered a new limpet species deep below the northwestern Pacific Ocean, it should come as no surprise that they looked to a nautical manga series for inspiration.
Photograph of the new species with a clear feeding trail behind. Credit: Chen et al.
Published as a new species in the open-access journal Zoosystematics and Evolution (follow the journal on Bluesky here), the deep-sea limpet was found on hard volcanic rock 500 kilometres southeast of Tokyo at a depth of almost 6 km, the deepest known habitat for any true limpet (subclass Patellogastropoda).
The gastropod measures up to 40.5 mm in shell length, which is a remarkably large size for a true limpet from such depths and another source of inspiration for the species’ name.
So, what is that name?
The research team named the new species Bathylepeta wadatsumi, which is both a reference to Wadatsumi, the god of the sea in Japanese mythology, and the character “Large Monk” Wadatsumi, from the manga series ONE PIECE.
“Large Monk” Wadatsumi. Credit: One Piece Wiki.
In ONE PIECE,”Large Monk” Wadatsumi is a giant fish-man and a member of the Sun Pirates. To avoid spoilers, that’s all we will say about the character, but as far as the reference goes: Wadatsumi is big, the limpet is big, and the authors love ONE PIECE.
So much so, that they paid further homage to the world’s most popular manga series in the acknowledgements section of their paper, writing:
“We also take this opportunity to salute Eiichiro Oda for continuing to chart the epic voyage of ONE PIECE (1997–), which reminds us that the greatest voyages are driven by freedom, camaraderie, and an insatiable thirst for discovery.”
Their own discovery was made possible by access to sophisticated submersible technology.
The new species was collected using the crewed submersible DSV Shinkai 6500, making it the first time a member of the genus Bathylepeta has been observed and photographed live on its natural rocky substrate, rather than being dredged using a net. The use of submersibles is instrumental in accessing these habitats, allowing for direct observation and collection of previously overlooked organisms.
JAMSTEC’s DSV Shinkai 6500 submersible.
“Even in an age of sophisticated remotely operated vehicles, there’s often an edge to the human eye on the seafloor. Crewed submersibles like Shinkai 6500 let us explore with intention and nuance—spotting lifeforms like Bathylepeta wadatsumi that might otherwise be missed entirely.”
Dr Chong Chen, lead author.
Beyond its taxonomic significance, the study has broader ecological implications as B. wadatsumi appears to graze on sediment layers over rock, indicating a specialised role in processing organic matter in deep-sea ecosystems.
The findings underscore the need for more comprehensive explorations of rocky abyssal habitats using submersibles to reveal the true diversity and distribution of Bathylepeta and other animals relying on such habitats.
While it remains to be seen whether Luffy and co. will ever find the “One Piece,” we can be sure that their adventures will continue to inspire researchers in their own journies of discovery.
Original source
Chen C, Tsuda M, Ishitani Y (2025) A new large-sized lepetid limpet from the abyssal northwestern Pacific is the deepest known patellogastropod. Zoosystematics and Evolution 101(3): 1249-1058. https://doi.org/10.3897/zse.101.156207
Cover image credit: Limpet photograph: Chen et al.; Illustration: ONE PIECE (TV series) Toei Animation.
