Eight weird and wonderful species to celebrate World Animal Day

Happy World Animal Day! Today is all about celebrating the incredible species roaming our planet and promoting action for animal rights and welfare.

To mark this special day, we have collected some of our favourite animals published across Pensoft’s journal portfolio.

1. The ‘cute but deadly’ velvet worm

The Tiputini velvet worm (Oroperipatus tiputini). Credit: Roberto José León.

Look at those adorable little legs!

Oroperipatus tiputini is a velvet worm that researchers published as a new species in Zoosystematics and Evolution. These invertebrates are known as “living fossils” because they evolved over 500 million years ago, long before the dinosaurs.

An adult and a juvenile velvet worm on a leaf.
The Tiputini velvet worm (Oroperipatus tiputini) adult and juvenile.

Despite its friendly appearance, the Tiputini velvet worm is an accomplished hunter that shoots a sticky substance from a pair of glands near its face to trap its prey!

Learn more: https://doi.org/10.3897/zse.100.117952

2. The ancient nautilus

Nautilus samoaensis. Credit: Barord et al.

Some creatures look like they belong to an era long ago.

But this one has only just been discovered! Found near American Samoa at a depth of 300 m, Nautilus samoaensis was one of three new nautilius species published in ZooKeys in 2023.

Close up of a nautilus species.
Underwater photos of living Nautilus samoaensis.

Sadly, these enigmatic molluscs with beautiful shells are facing population decline, and even extinction, due to the activity of unregulated fisheries.

Learn more: https://doi.org/10.3897/zookeys.1143.84427

3. The moth called Trump

A close-up photo of a moth's head, with yellow scales resembling hair.
Neopalpa donaldtrumpi.

Any ideas why Neopalpa donaldtrumpi was given its name?

Found in California, Arizona, and some areas of Mexico, this species was named days before Donald J. Trump became the the 45th President of the United States of America.

Four angles of the same moth.
Neopalpa donaldtrumpi.

Researcher Dr Vazrick Nazari hoped that the fame around the blonde-haired moth would raise awareness for the importance of further conservation efforts for the species’ fragile habitat.

Learn more: https://doi.org/10.3897/zookeys.646.11411

4. The stiff-necked stargazer

Three views of a fish whose eyes and mouth point upwards, and one xray scan of the fish.
The longnosed stargazer (Ichthyscopus lebeck).

We think this fish may have taken the advice “keep your chin up” a bit too literally.

The longnosed stargazer (Ichthyscopus lebeck) looks like this for good reason – it buries itself in sand, with just its eyes visible, and leaps upwards to ambush prey.

The first Southern Hemisphere record of this species was published in our journal Acta Ichthyologica et Piscatoria in 2024. 

Learn more: https://doi.org/10.3897/aiep.54.113513

5. The electric-blue tarantula

Juvenile Chilobrachys natanicharum. Credit: Yuranan Nanthaisong.

I’m blue da ba dee da ba d-AHHHHH!

Blue is a rare colour in nature, which is a shame because this tarantula from Thailand looks spectacular. The stylish spider sports iridescent streaks of neon colour on its legs, back, and mouthparts.

A tarantula with electric-blue colouration.
Juvenile Chilobrachys natanicharum. Credit: Yuranan Nanthaisong.

Chilobrachys natanicharum was already known in the pet trade as the electric blue tarantula, but a study published ZooKeys finally confirmed it as a unique species.

Learn more: https://doi.org/10.3897/zookeys.1180.106278

6. The chocolate frog

A brown glossy frog.
Synapturanus danta. Credit: Germán Chávez.

Anything from the trolley, dears?

While it may look like a Wizarding World snack, this burrowing frog species inhabits the soft soil of Amazon peatlands.

A brown glossy frog on a leaf.
Synapturanus danta. Credit: Germán Chávez.

Long known by Peru’s Three Corners Native Community, Synapturanus danta was published as a new species in Evolutionary Systematics in 2022.

Learn more: https://doi.org/10.3897/evolsyst.6.80281

7. The tailless whip scorpion

Black arachnid species on a hand.
Tailless whip scorpion (Phrynus whitei). Credit: Fugus Guy via WikiMedia Commons.

Sorry about this one.

Phrynus whitei is an amblypygid – an order of arachnids also known as whip spiders or tailless whip scorpions. Despite its unsettling appearance, it is generally calm around humans and is non-venomous.

Black and gold arachnid species.
Tailless whip scorpion (Phrynus whitei).

This creepy critter featured in Neotropical Biology and Conservation in an overview of the poorly-know amblypygid fauna of Honduras.

Learn more: https://doi.org/10.3897/neotropical.19.e113507

8. The adorable olinguito

a young fluffy mammal.
Juvenile olinguito (Bassaricyon neblina). Credit: Juan Rendon via savingspecies.org.

Hopefully this makes up for the last entry.

Looking like a cross between a teddy bear and a house cat, the olinigto was the first carnivorous mammal discovered in the Americas for 35 years!

Two pictures of a fluffy mammal on a tree.
The olinguito (Bassaricyon neblina). Credit: Mark Gurney.

Bassaricyon neblina belongs to a group of mammals called the olingos, which are related to raccoons and coatis.

Learn more: https://doi.org/10.3897/zookeys.324.5827

While we have enjoyed collecting a few of our favourite species featured in Pensoft journals, it is important to remember the value of every animal, regardless of cuteness or weirdness.

By supporting research and action that aims to protect our planet’s species, we can continue to enjoy our planet’s bizarre biodiversity that never fails to surprise and delight. Happy World Animal Day!

The Biodiversity Digital Twin to help understand our planet’s life

By combining and improving digitally available data and models, BioDT offers approaches for sustainable biodiversity management and ecosystem conservation.

Biodiversity is essential for the processes that support all life on Earth. It provides critical resources such as food and energy, and supports ecosystem health. However, climate change, deforestation, and pollution are destroying habitats, altering ecosystems, and eliminating – or introducing – species that are fundamental for planet’s biosphere.

To tackle the challenges caused by environmental change and human activities on biodiversity, a consortium of 22 partners led by CSC – IT Center for Science, home of the EuroHPC LUMI supercomputer, is developing Biodiversity Digital Twins (BioDT) as a result of the European Commission’s initiative.

Cover of the “Building Biodiversity Digital Twins” article collection in RIO journal.

The BioDT project aims to revolutionise our understanding of biodiversity dynamics by integrating advanced modelling, simulation, and prediction capabilities. By combining and improving digitally available data and models, BioDT offers approaches for sustainable biodiversity management and ecosystem conservation. BioDT’s combines expertise in biodiversity, ecological modelling, FAIR data, high-performance computing, and artificial intelligence.

BioDT aims to enhance the accuracy and predictive performance of biodiversity models through iterative development and validation against independent data. This approach can be critical for developing decision support tools and policy development. By continuously updating data, BioDT will provide real-time predictions of biodiversity patterns and processes through interactive maps and summaries. The consortium leverages existing technologies and data from major research infrastructures (GBIF, eLTER, DiSSCo, and LifeWatch ERIC) to achieve this goal.

A screenshot of the BioDT homepage.

The project’s impact extends to addressing critical issues, including impact of environmental  change on species and ecosystems, food security, and the implementation of the EU and international policies. The project contributes to the UN Sustainable Development Goals 2 (Zero Hunger), 3 (Good Health and Well-being), 13 (Climate Action), and 15 (Life on Land).

BioDT develops prototype Digital Twins for biodiversity conservation

In order to test its modelling system, BioDT is developing ten prototype digital twins (pDTs) focused on species and ecosystems of high conservation and policy concern, such as invasive species, pollinators and grasslands.
The pDTs are divided into four main groups:

  • Species Response to Environmental Change: focus on the interactions between species and ecosystems. By incorporating temporal dynamics rather than pure space-for-time substitutions, BioDT improves temporal predictions and accuracy. Different sources of uncertainty are quantified using extensive geographic data combined with high-resolution time-series data in a single modelling framework.
  • Genetically Detected Biodiversity: addressing food security and challenging environments by integrating genomic methods based on DNA data with traditional biodiversity data. These twins focus on crop wild relatives and other genetic resources for farming and food security, as well as DNA-detected biodiversity in poorly known habitats.
  • Dynamics of Species of Policy Concern: applying modelling and high-performance computing to invasive and alien species recognised at EU and national levels. This twin involves using current species occurrence data, and tackling crucial environmental conditions and invasive effects on native taxa and ecosystems.
  • Influence of Species Interactions: predicting disease outbreaks using vector species and exploring the patterns and processes of insect pollinators. Work on interaction twins involves further development of data exchange models and establishing temporal historic reference points through digitisation of collection specimens.
A screenshot from the BioDT homepage showing the purposes of prototype digital twins.

The pDTs aim to make essential datasets, best practices, expertise, and lessons learned available and ready for use to researchers and research infrastructures in implementing the use cases, while providing.

The pDTs test the models predictive performance and data availability scenarios, and apply them to address biodiversity challenges through scenario simulations, predictions, and biomonitoring methods. This iterative approach aims to integrate and compare the predictive performance of various modelling approaches, stimulating the development of next-generation prototypes.

To learn more about the biodiversity pDTs, explore the dedicated pages on the BioDT website

Building Biodiversity Digital Twins: a BioDT collection of scientific papers

To further advance the development and reliability of Biodiversity Digital Twins, the BioDT team has produced 10 scientific papers, compiled in the “Building Biodiversity Digital Twins” issue of the open-science scholarly journal Research Ideas and Outcomes (RIO).

“The collection offers an in-depth understanding of the conceptual and technical advancements achieved towards developing digital twins for a wide range of biodiversity topics. Through the BioDT project, we are enabling a broad audience to interactively understand and predict biodiversity changes across space and time.” says Gabriela Zuquim, Scientific Coordinator at CSC for the BioDT project 

The collection serves as a centralised access point to project outputs by the BioDT initiative. Publication of rather unconventional and not traditionally published research outputs is in fact amongst the unique features of the open-science RIO journal. Another feature is the possibility of individual publications to be mapped to the SDGs they contribute to, thereby further underlining their significance.

A conceptual diagram of a digital twin prototype from this paper. The core aim of this project is to test the feasibility of generating essentially real-time updating predictions on bird spatiotemporal distributions and singing activity by combining prior information, based on long-term monitoring data with continuously accumulating new information provided by citizen scientists.

In the case of BioDT, RIO has made it possible for the project team to illustrate the process of prototyping Biodiversity Digital Twins in the format of a peer-reviewed scientific article, thereby ensuring its discoverability, credibility, citability, reusability and long-term public availability. By opting for this transparent approach to sharing their scientific work that has standed the rigour of formal scientific review, the BioDT project ensures that future scientists can make better and more efficient use of the models developed by the consortium’s researchers, data, and cutting-edge technology.

For example, one publication describes the HONEYBEE Prototype Digital Twin. The prototype will allow, after the ongoing calibration with land use and hive weight data,  predictions of honeybee population dynamics, mite infestation and honey production. The model was developed based on a previously developed one, devised to simulate foraging of a single bee colony. By using the prototype digital twin, users can interactively apply the model on various time and geographic scales ranging from local sites to whole regions or even country level. Thus, it can become an essential tool for the assessment of the viability and productivity of honey bee colonies around Germany, regardless of the specificity of landscapes and management strategies.

Overview of the prototype HONEYBEE-pDT

Our vision is that the assessment can even be run to take into account different climate-change scenarios. The publication also provides guidelines to potential users of the prototype. The authors of the paper, led by Dr Jürgen Groeneveld (Helmholtz Centre for Environmental Research – UFZ, Germany) reminds that despite honey bees “being a managed species, they are severely affected by climate change, emerging parasites and diseases, modern agricultural land use and possibly inappropriate beekeeping practices”, while going on to cite worrying data about the trends in both Europe and the USA. 

Similarly, other publications already available from the collection address equally crucial and pressing issues with impact on a global scale, including disease outbreaks, crop management, invasive species, bird and vegetation dynamics. 

“The Building Biodiversity Digital Twins collection of project papers suited our needs perfectly,” said Dmitry Schigel, GBIF Scientific officer and a coordinating editor of the collection. “The project team agreed to capture the project’s iterations and reveal our two-thirds stage prototypes two years into the project with one more to go. The innovative platform that the Pensoft’s RIO journal provides lets us describe our progress in a less formal but still peer-reviewed setting. Thanks to the efficient work of the author teams, reviewers and co-editors, this special issue came together quickly and now enables our prototype digital twin teams to attract and process feedback from broader audiences”

Explore the “Building Biodiversity Digital Twins” collection, freely accessible on Pensoft’s RIO Journal. Read them now and see their impact!

Forgotten species: the crucial role of taxonomy and natural history collections in saving lost biodiversity

As a growing number of species face extinction, both researchers and the general public tend to focus on attractive, well-known and charismatic fauna and flora. But what about the species that have disappeared from scientific recognition altogether? 

Research published in our open-access journal Nature Conservation sheds light on how historic taxonomic errors and misinterpretations have led to the disappearance of many species from science’s radar, highlighting the crucial role that  taxonomy and natural history collections (NHCs) can play in rediscovering and conserving biodiversity.

Research paper: ‘Lost species, neglected taxonomy, and the role of natural history collections and synonymization in the identification of the World’s forgotten biodiversity’ by Spartaco Gippoliti, Simone Farina and Franco Andreone

Forgotten species and taxonomic inertia

Many species that were described long ago have been overlooked due to erroneous synonymisation, a process whereby one species is mistakenly classified under another’s name, generally because of the scarce number of specimens available. These species, the authors now refer to as ‘long-lost synonymised species,’ can fall out of awareness for decades, even centuries. 

The 20th century saw a general trend of ‘lumping’ species together, reducing the number of recognised taxa, especially within well-known vertebrate groups. Taxonomic inertia – the persistence of outdated classifications – has caused many species to remain under-recognised, with their conservation statuses too often overlooked. This problem is described among better-known vertebrates, but is also likely present in some of the best studied invertebrates.

The importance of natural history collections

More than simply relics of the past, natural history collections provide a contemporary and essential resource for taxonomists working to untangle these historical errors. Museum specimens allow scientists to re-examine old classifications, using modern tools and methods to correct mistakes and uncover new taxa. Recent advances in ‘museomics’ – the study of genetic material from museum specimens – have opened new possibilities for species identification and conservation.

A 'Geoffroy's cat' laying in grass.
Leopardus geoffroyi. Credit: diegocarau via iNaturalist.

Such breakthroughs have led to the revalidation of the Neotropical genus Leopardus and the African wolf, Canis anthus, which had been synonymised for decades. Without natural history collections and the associated holotypes, the nomenclature of these species might have remained obscured, and their conservation needs unmet or delayed.

Natural History Collections and Museomics

Pensoft recently launched a new journal titled Natural History Collections and Museomics (NHCM).The publication comes at a pivotal moment in which taxonomists face the challenges of dwindling resources and fewer scientists entering the field. Through the publication of important open-access research, the journal aims to play a crucial role in bridging the gap between traditional taxonomy and modern conservation efforts. 

Furthermore, by highlighting the essential role of taxonomy and natural history collections, NHCM will support the rediscovery of species long lost to science and help to conserve the world’s forgotten biodiversity. As the field of museomics grows, so too does the hope of rediscovering species that have been hidden in plain sight. The new journal already benefits from a competent and varied editorial board, including two of the authors of the Nature Conservation paper, Franco Andreone and Spartaco Gippoliti.

If the scientific community rally behind taxonomy and natural history collections, ensuring these vital tools are integrated into future biodiversity assessments, we can hope to preserve not just the species we know, but those we have forgotten.

Original source:

Gippoliti S, Farina S, Andreone F (2024) Lost species, neglected taxonomy, and the role of natural history collections and synonymization in the identification of the World’s forgotten biodiversity. Nature Conservation 56: 119-126. https://doi.org/10.3897/natureconservation.56.132036

Shifting sands: how coastal protection affects unseen beach life

Sand nourishments are routinely applied coastal protection measures that have a significant impact on meiofauna communities.

Guest blog post by Iryna Kapshyna, Gritta Veit-Köhler, Leon Hoffman and Sahar Khodami.

During a relaxing beach vacation, most people probably give little thought to whether the beach would still be there if it was not regularly replenished.

In fact, sand nourishment is a common and frequently used coastal protection measure whereby sand is sucked up from the seabed by a flushing ship, transported to the coast, washed up and spread with bulldozers.

An infographic showing different levels of sand on a beach during the sand nourishment process.
Beach extent before and its changes after sand nourishment: Immediately before the sand nourishment (T0, beige); After the sand nourishment the beach reached its maximum extent (T1, burgundy); Two more sampling dates (T2 and T3, dark and light pink).

Due to continuous erosion – the removal of sand by storms, waves and currents – sand nourishment has to be repeated regularly. Otherwise, uncontrolled erosion would mean the loss of beaches, shore areas, coastal cliffs and dunes.

But, while they are important, coastal protection measures such as sand nourishments incur high costs and often lead to the disturbance of ecosystems.

In a study published in the open-access journal Metabarcoding & Metagenomics, A research team from Senckenberg am Meer in Wilhelmshaven show how such disturbances and the subsequent recovery can be monitored efficiently and reliably.

At Ahrenshoop on the Baltic Sea, researchers investigated the effects of sand nourishment on the meiofauna – organisms less than one millimeter in size – and found significant results.

Two women collecting sand samples on a beach.,
We took a total of 246 sediment samples for the investigation of meiofauna from the beach at Ahrenshoop and analysed them in the laboratory in Wilhelmshaven. Photo: Leon Hoffman

“State-of-the-art genetic methods and the traditional method of identifying and counting the animals under the microscope show the same result. The communities of meiofauna changed drastically after the sand was washed up and slowly recovered over the course of a year.”

Project coordinator, Dr Gritta Veit-Köhler.

Immediately after the impact, mites (Acari) and annelid worms (Annelida) had almost completely disappeared from the swash zone, copepods (Copepoda) declined significantly, while the number of flatworms (Platyhelminthes) increased.

Meiofauna organisms are the most numerous animals on the seabed and play an important role in the food webs there. They are well suited as ‘bioindicators’ to detect and study environmental impacts and various forms of ecosystem disturbance, including those caused by humans. Due to their small body size, ubiquity and large numbers, their communities can be studied with small sample sizes.

Over a period of one and a half years, the researchers took and analysed a total of 246 sand samples from the beach-water interface.

“Using the classic taxonomic method, we identified 27,445 individuals under the microscope, which we assigned to ten higher taxonomic groups such as nematodes and copepods. But it was only the genetic analysis that brought the full diversity of species to light.”

Iryna Kapshyna, doctoral student and first author of the study.
Meiofauna organisms collected on the beach at Ahrenshoop. Six purple organisms on a black background.
Meiofauna organisms collected on the beach at Ahrenshoop. Top left: Tardigrade, flatworm, top right: copepod, nematode, bottom left to right: marine mite, annelid. Scales 0.1 mm each. Images: Iryna Kapshyna, Olena Uzun, Tobias Fischer

Using the ‘metabarcoding’ method, in which all animals in a sample are analysed together and differences in specific gene segments (here V1&V2) are searched for, a large number of samples can be analysed quickly and reliably.

The researchers were able to identify a total of 843 so-called ‘operational taxonomic units’ (OTUs) – in simple terms, different species.

“843 species sounds like a lot – but in fact, the beach studied had a lower diversity of meiofauna compared to the deep sea or other marine areas.”

Dr Sahar Khodami, Senckenberg am Meer.

The size of the organisms studied means they have previoulsy been difficult to study and have not received as much attention as larger species.

“When considering the effects of coastal protection measures on ecosystems, the smallest marine animals should not be overlooked! Metabarcoding can replace the traditional morphological method, after initial studies using both methods.”

The research team.

Original study:

Kapshyna I, Veit-Köhler G, Hoffman L, Khodami S (2024) Impact of a coastal protection measure on sandy-beach meiofauna at Ahrenshoop (Baltic Sea, Germany): results from metabarcoding and morphological approaches are similar. Metabarcoding and Metagenomics 8: e127688. https://doi.org/10.3897/mbmg.8.127688

Follow Metabarcoding and Metagenomics on social media:

Will climate change lead to the extinction of a newly discovered tarantula species?

The remarkable new species is endemic to the Chiricahua Mountains and is predominately distributed in mid- to high-elevation forests.

A new species of tarantula spider, Aphonopelma jacobii, has been discovered from the Chiricahua Mountains in southeastern Arizona. This small, black and grey tarantula species has fiery red hairs on its abdomen and can be found in the high-elevation habitats of the Chiricahua Mountains, where it survives through bitterly cold winters.

A photo of two small Aphonopelma jacobii standing against each other against a backdrop of foliage.
A male and a female Aphonopelma jacobii. Their small size can be seen when compared to the acorn cap, pine needles, and oak leaf. Photo by Brent E. Hendrixson

The discovery was rather unexpected. “We often hear about new species being discovered from remote corners of Earth, but it is remarkable that these spiders are found in our own backyard, albeit in somewhat difficult-to-access areas of our backyard,” said Dr. Chris Hamilton, assistant professor at the University of Idaho and co-lead author of a study in ZooKeys that reports on the spider. “With Earth in the midst of a human-mediated extinction crisis, it is astonishing how little we know about our planet’s biodiversity, even for conspicuous and charismatic groups such as tarantulas.”

A photo of a female Aphonopelma jacobii.
A mature female Aphonopelma jacobii. Photo by Brent E. Hendrixson

The Chiricahuas, renowned for their exceptional biodiversity and high levels of endemism, compose part of the Madrean Archipelago (colloquially referred to as the Madrean Sky Islands), a complex of forested mountain ranges that span the cordilleran gap between the Colorado Plateau and Rocky Mountains in the southwestern United States and the Sierra Madre Occidental in northwestern Mexico. These montane forest “islands”—separated from each other by low-elevation deserts and arid grasslands—have evolved in isolation, leading to the origin of numerous short-range endemic species, and resulting in a mosaic of biodiversity unlike that of any other region in the United States.

A photo of a mature male Aphonpelma jacobii on foliage.
A mature male Aphonpelma jacobii. Photo by Brent E. Hendrixson

The forests where these tarantulas live are threatened by several factors, perhaps most notably from climate change. Recent studies in the sky island region suggest that these forests will be “pushed off” the mountains over the next several decades as temperatures and precipitation continue to increase and decrease, respectively. Organisms adapted to these cooler and more humid mountain tops—such as these spiders—will likely become extinct as suitable habitat disappears.

Dr. Brent Hendrixson, professor at Millsaps College and co-lead author of the study adds, “These fragile habitats are also threatened by increased exurban development in the San Simon Valley and Portal areas, destructive recreational activities, and wildfires. In addition, there is some concern that these tarantulas will be exploited for the exotic pet trade due to their rarity, striking coloration, and docile disposition. We must consider the impact that unethical collectors might have on these spiders when determining the threats to this species and the implications for its conservation.”

A photo of a coniferous forest in front of mountains.
A photograph of Aphonopelma jacobii‘s habitat high up in the Chiricahua Mountains. Photo by Michael A. Jacobi

Aphonopelma jacobii is named after Michael A. Jacobi, who helped find several of the first specimens which led to the description of this new species.

“This discovery represents the 30th species of tarantula documented from the United States. Aphonopelma is the most species diverse tarantula genus on the planet (at least for documented species). Our research adds to this number and continues to advance our understanding of the true species diversity in this incredibly interesting and important biodiversity hotspot,”Dr. Hamilton says in conclusion.

Research article:

Hamilton CA, Hendrixson BE, Silvestre Bringas K (2024) Discovery of a new tarantula species from the Madrean Sky Islands and the first documented instance of syntopy between two montane endemics (Araneae, Theraphosidae, Aphonopelma): a case of prior mistaken identity. ZooKeys 1210: 61-98. https://doi.org/10.3897/zookeys.1210.125318

The race to discover biodiversity: 11 new marine species and a new platform for rapid species description

The initiative boasts the discovery of eleven new marine species from all over the globe, occurring at depths from 5.2 to 7081 meters.

Accelerating global change continues to threaten Earth’s vast biodiversity, including in the oceans, which remain largely unexplored. To date, only a small fraction of an estimated two million total living marine species have been named and described. A major challenge is the time it takes to scientifically describe and publish a new species, which is a crucial step in studying and protecting these species. The current scientific and publishing landscape often results in decade-long delays (20-40 years) from the discovery of a new species to its official description. As an alternative to this, the Ocean Species Discoveries initiative was launched, offering a new platform for rapid but thorough taxonomic description of marine invertebrate species.

Lepechinella naces, a newly described amphipod, on a black background.
One of the newly described species, Lepechinella naces.

Ocean Species Discoveries is coordinated by the Senckenberg Ocean Species Alliance (SOSA), a project of the Senckenberg Research Institute and Natural History Museum Frankfurt. SOSA’s goal is to facilitate the discovery, protection, and awareness of marine invertebrate species before they become extinct.

The project coordinated 25 different researchers and produced data on thirteen marine invertebrate taxa, including one new genus, eleven new species, and one redescription and reinstatement. The species, which originate from all over the globe and at depths from 5.2 to 7081 meters, are brought together in an open-access publication in the Biodiversity Data Journal.

Only by leveraging the collective strengths of global progress, expertise, and technological advancements, will we be able to describe the estimated 1.8 million unknown species living in our oceans.

Prof. Dr. Julia Sigwart

This is the first of a series of publications related to SOSA’s initiative, in collaboration with Biodiversity Data Journal, presenting a revolutionary approach in new species descriptions, thanks to which the publication of new species takes years, sometimes even decades, less. The ARPHA publishing platform, which powers the Biodiversity Data Journal, further expedites species descriptions and their use in studies and conservation programs by employing a streamlined data publishing workflow. ARPHA automatically exports all species data, complete with images and descriptions, to GBIF—the Global Biodiversity Information Facility and the Biodiversity Literature Repository at Zenodo, from where other researchers can easily find and use them.

Dorsal, ventral, and lateral images of a newly described hydrothermal vent limpet, Lepetodrilus marianae, on a black background.

One of the new OSD species – a hydrothermal vent limpet, Lepetodrilus marianae. Photo credit: Chong Chen, Hiromi Kayama Watanabe, and Miwako Tsuda

One of the new species described in the Ocean Species Discoveries is Cunicolomaera grata, a curious amphipod whose burrows along the seafloor perplexed scientists. Another is a wrinkly-shelled limpet called Lepetodrilus marianae that lives on hydrothermal vents, underwater volcanoes in the deep-sea where temperatures can reach 400 degrees C. Normally, the descriptions for these two very different species wouldn’t be in the same publication, but this new publication format allows for species descriptions from different marine invertebrate taxa to be published together in one ‘mega-publication,’ offering a huge incentive for researchers to make their discoveries public.

Top: a newly described hole-making amphipod, Cunicolomaera grata, on a black background. Bottom: A photo of burrows on the ocean floor where the amphipod is presumed to live.
One of the new OSD species – a hole-making amphipod, Cunicolomaera grata. Photo credit: Anne Helene S. Tandberg and Anna M. Jażdżewska

“Currently, there’s a notable delay in naming and describing new animals, often because journals expect additional ecological or phylogenetic insights. This means many marine species go undescribed due to lack of data. OSD addresses this by offering concise, complete taxonomic descriptions without requiring a specific theme, refocusing attention on taxonomy’s importance,” says Dr. Torben Riehl, who is one of the researchers featured in Ocean Species Discoveries.

Top: Psychropotes buglossa, a newly described sea cucumber species. Bottom: Psychropotes buglossa grabbed by the mechanic arm of a remote-operated vehicle.

The reinstated OSD species – a purple long-tailed sea cucumber, Psychropotes buglossa. Photo credit: Amanda Serpell-Stevens, Tammy Horton, and Julia Sigwart

Reducing the time it takes to get from discovering a new animal to a public species description is crucial in our era of increasing biodiversity loss. The wrinkly-shelled limpet and two other species described in the Ocean Species Discoveries live in hydrothermal vent zones – an environment threatened by deep-sea mining. Another OSD species, Psychropotes buglossa, a purple sea cucumber (sometimes also called a gummy squirrel), lives in the North Atlantic, but similar species live in areas of high economic interest, where polymetallic-nodule extraction could soon endanger sea life. Threats like these risk driving species to extinction before we even get the chance to know and study them. Through efforts like SOSA’s Ocean Species Discoveries, we can get closer to understanding the biodiversity of our oceans and protecting it before it’s too late.

Dorsal and ventral views of a newly described species of deep-sea chiton, Placiphorella methanophila.

One of the new OSD species – a deep-sea chiton, Placiphorella methanophila. Photo credit: Katarzyna Vončina

“Only by leveraging the collective strengths of global progress, expertise, and technological advancements, will we be able to describe the estimated 1.8 million unknown species living in our oceans. Every taxonomist specialized on some group of marine invertebrates is invited to contribute to the Ocean Species Discoveries,” says Prof. Dr. Julia Sigwart in conclusion.

Research article:

(SOSA) SOSA, Brandt A, Chen C, Engel L, Esquete P, Horton T, Jażdżewska AM, Johannsen N, Kaiser 5, Kihara TC, Knauber H, Kniesz K, LandschoffJ, Lörz A-N, Machado FM, Martínez-Muñoz CA, Riehl T, Serpell-Stevens A, Sigwart JD, Tandberg AHS, Tato R, Tsuda M, Vončina K, Watanabe HK, Went C, Williams JD (2024) Ocean Species Discoveries 1-12 — A primer for accelerating marine invertebrate taxonomy. Biodiversity Data Journal 12: e128431. https://doi.org/10.3897/BDJ.12.e128431

Biodiversity Research in Central America: a new special issue from Neotropical Biology & Conservation

The article collection highlights an array of contemporary research across this biodiverse region.

Guest post by Monika Lipińska, academic editor and contributing author of Biodiversity Research in Central America.

Central America, a region brimming with ecological richness and diversity, presents a unique and complex tapestry of life. From its dense tropical forests and majestic mountain ranges to its vibrant coastal ecosystems and intricate freshwater networks, Central America is a biological treasure trove. The region’s varied habitats support an incredible array of species, many of which are endemic and face critical conservation challenges.

Biodiversity Research in Central America is a special issue in the open-access journal Neotropical Biology and Conservation, consisting of articles that highlight the breadth and depth of contemporary research across this biodiverse region. Each article sheds light on different aspects of the flora and fauna, offering insights into the ecology, behavior, and conservation of various species and ecosystems. The research presented here not only enhances our understanding of Central America’s natural wealth but also underscores the urgent need for effective conservation strategies to preserve it.

The articles

Ocelot (Leopardus pardalis) Breeding Effort and Productivity for Seasonal Tropical Forests on the Central Mexican Pacific

A still of two ocelots. taken from camera footage. One is circled.

The opening article examines the reproductive ecology of ocelots in a specific tropical forest, providing valuable data on their breeding success and the environmental factors that influence it.

DOI: https://doi.org/10.3897/neotropical.19.e114194

New Records of Neogale frenata and Potos flavus from Sierra Madre de Oaxaca, Mexico

A long-tailed weasel beside a human hand.

New occurrences of these elusive species are documented, expanding our knowledge of their distribution and highlighting the importance of ongoing field surveys.

DOI: https://doi.org/10.3897/neotropical.19.e117799

New Records of Two Marsupials (Didelphimorphia, Didelphidae) and Conservation Notes from Southern Mexico

A Central American woolly opossum on a man's shoulder.

Researchers present new findings on marsupial species, offering critical insights into their habitats and the conservation challenges they face in this region.

DOI: https://doi.org/10.3897/neotropical.19.e119836

The Amphibians and Reptiles of Cusuco National Park: Updates from a Long-Term Conservation Programme

A frog on a branch.

Years-long conservation efforts in Cusuco National Park, Northwest Honduras, are detailed in this article, showcasing the dynamic changes and conservation successes in this biodiverse area.

DOI: https://doi.org/10.3897/neotropical.19.e120902

A Record of a Non-Fatal Attack of an American Crocodile (Crocodylus acutus) in the ‘Rio Segovia’ on the Honduras-Nicaragua Border

A dead crocodile.

Researchers provide a unique case study of human-wildlife interactions, emphasizing the importance of understanding and managing these encounters.

DOI: https://doi.org/10.3897/neotropical.19.e120434

Trophic Ecology and Trophic Niche Overlap of Two Sympatric Species of Rhamdia (Siluriformes: Heptapteridae) from Northeast Oaxaca, Mexico

A map of Oaxaca, Mexico.

Exploring the dietary habits and ecological relationships between these catfish species, this article contributes to our understanding of aquatic ecosystems.

DOI: https://doi.org/10.3897/neotropical.19.e119908

Interaction Intensity as Determinant of Geographic Range Overlap Between Ant-Following Birds and Army Ants

A blue-and-red bird on a branch.

Researchers delve into the fascinating interactions between birds and their insect prey, revealing how these dynamics shape species distributions.

DOI: https://doi.org/10.3897/neotropical.19.e117386

Ants in the Clouds: A Preliminary Checklist of the Ant (Hymenoptera, Formicidae) Fauna of a Honduran Cloud Forest Ecosystem, Featuring a Key to Country Genera

A winged ant.

In this article, the diverse ant fauna of a cloud forest is cataloged, providing a foundation for future ecological and taxonomic studies.

DOI: https://doi.org/10.3897/neotropical.19.e119775

The Poorly-Known Amblypygid Fauna (Arachnida, Amblypygi) of Honduras, Central America: An Overview

An Amblypygid, a type of arachnid.

An overview of this lesser-studied arachnid group, highlighting their ecological roles and the need for further research.

DOI: https://doi.org/10.3897/neotropical.19.e113507

Pollination of Guatemalan Orchids – State of Knowledge

A hummingbird feeding from an orchid.

A review of current understanding and gaps in the study of orchid pollination, emphasizing the intricate relationships between plants and their pollinators.

DOI: https://doi.org/10.3897/neotropical.19.e119499

A Preliminary Assessment of Water Quality in Silvopastoral Systems of Panama’s Dry Tropical Forest

A map of Panama.

Researchers assess the impacts of land-use practices on water quality, providing insights into sustainable agricultural practices.

DOI: https://doi.org/10.3897/neotropical.19.e111865

Dispersal Capacity as Assessed by Distance-Decay Relationships is Lower for Aquatic Shredder Insects than Aquatic Non-Shredder Insects in a Neotropical River Network

A map showing streams located in distinctive vegetation classes within Salinas, Cahabon.

The dispersal abilities of aquatic insects are compared in this paper, highlighting the factors influencing their distribution patterns.

DOI: https://doi.org/10.3897/neotropical.19.e111865

The Trichoptera of Panama XXVII. The Third Benchmark—A Waypoint to the Future

A map of Panama.

This research marks a significant milestone in the study of caddisflies, summarizing progress and future directions in this field.

DOI: https://doi.org/10.3897/neotropical.19.e113487

Gradual Change and Mosaic Pattern of Macrofaunal Assemblages Along Depth and Sediment Gradients in a Tropical Oceanic Island

A graph showing the association of macrofauna with environmental variables.

An exploration of the complex patterns of marine life distribution, providing insights into the factors shaping these communities.

DOI: https://doi.org/10.3897/neotropical.19.e117876

Marine Nematodes of Costa Rica: State of the Art

A map of Costa Rica.

Finally, this paper reviews the current knowledge of these important but often overlooked organisms, emphasizing their ecological significance and the need for further research.

DOI: https://doi.org/10.3897/neotropical.19.e115345

Together, these articles represent a significant contribution to the field of biodiversity research in Central America. They underscore the importance of continued scientific exploration and conservation efforts to protect the rich natural heritage of this remarkable region. We hope that this special issue will inspire further research and action to preserve Central America’s biodiversity for future generations.

Follow Neotropical Biodiversity and Conservation on social media:

New species, old threats: two hillstream suck-loaches discovered in China

The new-to-science fish face an uncertain future due to pollution and unsustainable harvesting.

All too often, researchers discover new species only to learn they are already at risk of extinction.

So when researchers from Shanghai Ocean University and Yunnan Agricultural University identified two new species from the upper Pearl River system in southwest China, they were likely unsurprised to find the fish facing major threats from pollution and overharvesting.

Three views of a flat-bottomed fish species with bumps on its head.
Beaufortia granulopinna holotype from Lizhou River, a stream tributary of Bo′ai River of the Pearl River basin, at Tianlin County, Guangxi Province, China.

The new species, Beaufortia granulopinna and Beaufortia viridis, are members of the family Gastromyzontidae, also known as hillstream suck-loaches. They are highly specialised, with compressed bodies, flattened bottoms, and greatly expanded paired fins forming suction cup-like structures. These adaptations enable them to adhere to rocky substrates, resisting currents while feeding on algae and invertebrates.

Researchers discovered the new species during surveys studying aquatic life in various waterways in Yunnan and Guangxi between 2022 and 2024. The study, led by Jing-Chen Chen, offers new insights into the taxonomy and molecular phylogeny of the Beaufortia pingi species group, of which the two discoveries are likely members.

Three views of a flat-bottomed fish species witha green and brown colouration.
Beaufortia viridis holotype from Wuming River, a stream tributary to the You River of the Pearl River basin, at Wuming District, Nanning City, Guangxi Province, China.

Although research on the Beaufortia pingi group is mostly in its initial stages, the situation is far from optimistic. These species have become popular ornamental fish in China, and aquarium trade operators reap substantial profits through their capture and sale. Among them are those who act with disregard for sustainability, using destructive harvesting practices.

Given the loaches’ preference for fast-flowing water, projects that obstruct rivers can easily lead to regional extinction. Their low pollution tolerance and sensitivity to changes in water quality also contribute to the significant reductions in population that many species are suffering.

Landscape image of a river and trees.
Collection site of Beaufortia viridis from Wuming River, a stream tributary to the You River of the Pearl River basin, Wuming District, Nanning City, Guangxi Province, China. Photographed by Jing-Chen Chen.

In the habitat of B. viridis, Wuming District, Nanning City, most small tributaries have been modified into step-like reservoirs for water storage, and those near agricultural irrigation areas are polluted, rendering these areas unsuitable for their survival. Interestingly, however, a stable population was discovered inside a commercial eco-camping site left untouched to satisfy consumers’ pursuit of “pristine nature.”

The researchers suggest that future efforts should focus on increasing attention to these species, conducting fundamental research, and further exploring their scientific and economic potential. Simultaneously, it is crucial to enhance habitat conservation awareness, scientifically plan, and develop sustainably, ensuring harmonious coexistence between humans and nature.

Original source

Chen J-C, Li J-J, Tang W-Q, Pu X-R, Lei H-T (2024) Taxonomic resolution of the hillstream suck-loach Beaufortia pingi species group (Cypriniformes, Gastromyzontidae) and two new species from Southwest China– Beaufortia granulopinna and Beaufortia viridis. Zoosystematics and Evolution 100(3): 941-963. https://doi.org/10.3897/zse.100.124370

Follow Zoosystematics and Evolution on X and Facebook for more!

MAkiNg Technology work for moNitoring polliNAtors: Pensoft joins ANTENNA

Pensoft is to maximise the project’s impact by informing stakeholders about results and raising public awareness about pollinators.

Pensoft joins the newly funded Biodiversa+ project ANTENNA focused on making technology work for monitoring pollinators and is tasked with the communication, dissemination and exploitation activities. 

The overarching goal of ANTENNA is to fill key monitoring gaps through advancing innovative technologies that will underpin and complement EU-wide pollinator monitoring schemes, and to provide tested transnational pipelines from monitoring activities to curated datasets and enhanced indicators that support pollinator-relevant policy and end-users.

The ANTENNA project answers the BiodivMon call, which was launched in September 2022 by Biodiversa+ in collaboration with the European Commission. The BiodivMon call sought proposals for three-year research projects to improve transnational monitoring of biodiversity and ecosystem change, emphasising innovation and harmonisation of biodiversity data collection and management methodologies, addressing knowledge gaps on biodiversity status and trends to combat biodiversity loss, and the effective use of existing biodiversity monitoring data. 

Supporting the work of Work Package #5: “Project coordination, and communication”, Pensoft is dedicated to maximising the project’s impact by employing a mix of channels to inform stakeholders about the results from ANTENNA and raise public awareness about pollinators.

Pensoft is also tasked with creating and maintaining a clear and recognisable project brand, promotional materials, website, social network profiles, internal communication platform, and online libraries. Another key responsibility is the development, implementation and regular updates of the project’s communication, dissemination and exploitation plans, that ANTENNA is set to follow for the next four years.

On 14-15 March 2024, ANTENNA held its official kick off meeting. Project partners came together in Halle, Germany for two days to outline objectives, discuss strategies, and set the groundwork for this venture.

Specifically, the combined expertise of the consortium will address the following objectives:

  1. Advance automated sample sorting and image recognition tools from individual prototypes to systems that can be adopted by practitioners
  2. Expand pollinator monitoring to under-researched pollinator taxa, ecosystems, and pressures
  3. Quantify the added value of novel monitoring systems in comparison and combination with ‘traditional’ methods in terms of cost effectiveness
  4. Provide a framework for integrative monitoring by combining multiple data streams and. The framework will also support the development of near real-time forecasting models as bases for early warning systems;
  5. Upscale local demonstrations into the implementation of large-scale transnational pipelines and provide context-specific guidance to the use of policy-makers and other users who might need to select monitoring methods and indicators.

Consortium*:

  1. Helmholtz-Centre for Environmental Research (UFZ), Germany
  2. Naturalis Biodiversity Center, Netherlands
  3. Aarhus University, Denmark
  4. Consejo Superior de Investigaciones Científicas (CSIC), Spain
  5. University of the Aegean, Greece
  6. Universidad Politécnica de Madrid, Spain
  7. Trinity College Dublin, Ireland

*Pensoft Publishers is a subcontractor tasked by the UFZ with multiple communication, dissemination and exploitation activities as part of Work Package 5.


Stay up to date with the ANTENNA project’s progress on X/Twitter (@ANTENNA_project) and LinkedIn (/antenna-project).

Top-lane crab: new species named after League of Legends character

The ‘furry’ crustacean is the latest discovery to be given a video-game-inspired name.

Species of the crab family Xanthidae go by many names: gorilla crabs, mud crabs, pebble crabs, rubble crabs – the list goes on. But when it was time to name a tiny, ‘furry’ new species from China, researchers drew unlikely inspiration from the video game League of Legends.

Gothus teemo was named after the character Teemo from the immensely popular MOBA (Multiplayer Online Battle Arena) thanks to its distinctive appearance.

Two images of a small white-and-brown crab species besides Teemo from League of Legends.
Gothus teemo male holotype (left), Teemo (right).

Loosely resembling a raccoon, Teemo is small and fluffy with a brown and white intermingled fur coat. The new species’ small size, densely covered short setae (bristles), and brown-striped colouration quickly drew comparisons.

Published in the open-access journal Zoosystematics and Evolution, the discovery was made during an expedition to the coral reefs of the South China Sea. There researchers discovered the new species in the Xisha Islands (Paracel Islands) and Nansha Islands (Spratly Islands).

An illustration of the crab species Gothus teemo. It is black with brown patterning.
Illustration of Gothus teemo by by Fei Gao.

The team collected specimens while scuba diving, photographing them and conserving them for further study. The specimens are now housed at the Marine Biological Museum, Chinese Academy of Sciences in Qingdao, China.

This new-to-science crab represents not only a new species, but also an entirely new genus. Sticking to a theme, researchers named the genus after a game – albeit one created 2,500 years before League of Legends!

The boardgame Go. Black and white counters on a a wooden box with a grid pattern.
The ancient Chinese board game, Go.

They chose the name Gothus for the genus, drawing inspiration from the ancient Chinese strategy board game, Go. The name alludes to the intermingled black and white patterns on the carapace of Gothus species, beneath which lie circular granules resembling the pieces of the game.

As part of their study, the researchers suggested the reclassification of the species Actaea consobrina into the genus Gothus. This reclassification was based on both morphological and molecular evidence.

A white crab with balck and orange dots.
Actaea consobrina, proposed as Gothus consobrina.

Gothus teemo is by no means the only new species named after a video game character. Just last week, we shared a story from our Biodiversity Data Journal about a blind spider named after the Monster Hunter character Khezu – check out the story below!

Gothus teemo is yet another reminder that countless unknown creatures are just waiting to be discovered. The coral reefs of the South China Sea continue to be a rich source of new and fascinating species. And, who knows, perhaps there’s a Gothus tristana out there, too.

Original source

Yuan Z-M, Jiang W, Sha Z-L (2024) Morphological and molecular evidence for Gothus teemo gen. et sp. nov., a new xanthid crab (Crustacea, Brachyura, Xanthoidea) from coral reefs in the South China Sea, with a review of the taxonomy of Actaeodes consobrinus (A. Milne-Edwards, 1867). Zoosystematics and Evolution 100(3): 965-987. https://doi.org/10.3897/zse.100.117859

Follow Zoosystematics and Evolution on X and Facebook for more!