The new faculty members are joining an institution that has positioned its research enterprise around close partnerships with Oak Ridge National Laboratory, the Y-12 National Security Complex and the Tennessee Valley Authority. These relationships provide access to specialized facilities, large-scale computing, advanced materials laboratories and expertise in nuclear science and energy systems. University Chancellor Donde Plowman said the recruits were attracted by UT’s growing research ecosystem and by opportunities to work on problems with direct significance for Tennessee and the wider nation.

Among the most technology-focused appointments is Shaundra Daily, who is joining UT from Duke University as a professor in the College of Communication and Information. Daily studies artificial intelligence, human-centered technology and affective computing, a field that uses computational systems to recognize, interpret or respond to human emotions. Her work examines sociotechnical systems, meaning systems shaped jointly by technical tools, human users and social institutions. By designing technologies that improve participation and achievement in science, technology, engineering and mathematics, she investigates how AI can become more inclusive rather than simply more powerful.

Deep Jariwala, arriving from the University of Pennsylvania in 2027 as the UT-ORNL Governor’s Chair for Quantum Devices, will focus on materials and devices for next-generation computing, sensing and communications. His research is expected to explore how emerging materials can manipulate charge, light or other physical properties at very small scales. Such materials could support specialized chips for artificial intelligence, where conventional architectures increasingly face limits in energy consumption and processing efficiency. Quantum devices may also enable sensors capable of detecting subtle changes in magnetic fields, chemical environments or biological signals.

The university is also strengthening its research in digital health through the appointment of Graham Thomas, who joined UT from Brown University as a professor and center director in the College of Education, Health, and Human Sciences. Thomas studies methods for optimizing and delivering health interventions, using digital platforms and advanced analytics to understand behavior. His work includes weight management, eating patterns and physical activity. By analyzing data from mobile devices, virtual tools and other digital systems, researchers can examine how interventions work for different individuals and adjust them over time rather than relying on a single treatment approach for everyone.

Laurent Capolungo, who is coming from Los Alamos National Laboratory as a professor in the Tickle College of Engineering, brings expertise in computational materials science. His research uses multiscale modeling to predict how materials and structures behave under extreme conditions. Multiscale approaches connect phenomena occurring at atomic or microscopic levels with the performance of components that can be meters in size. This capability is particularly important for advanced manufacturing, nuclear energy and defense, where materials may encounter intense heat, radiation, mechanical stress or corrosive environments. Better simulations can reduce development costs while helping engineers design safer and more durable systems.

Sustainable materials and circular manufacturing will be advanced through the appointment of Orlando J. Rojas, who will join UT from the University of British Columbia as the UT-ORNL Governor’s Chair for Circular Biomaterials. Rojas studies soft matter, a category that includes polymers, gels, colloids and biological materials whose physical behavior differs from that of rigid solids. His research contributes to the development of technical textiles and biomedical materials, while also examining how renewable or discarded biological resources can replace petroleum-based feedstocks. A circular approach aims to keep materials in productive use for longer, reducing waste and the energy required to manufacture new products.

Jeffery Tomberlin, joining the UT Institute of Agriculture from Texas A&M University as the Chancellor’s Excellence Professor, will bring his pioneering work on black soldier flies. The insects are efficient decomposers whose larvae can convert organic waste into protein-rich biomass and nutrient-containing residue. This process has potential applications in animal feed, fertilizer and waste management, making it a notable example of the circular bioeconomy. Tomberlin’s research also supports forensic entomology, which uses insect development and ecological patterns to help estimate the timing and circumstances surrounding death in criminal investigations.

Two additional appointments extend UT’s reach into precision medicine and population health. Carolyn Anderson, arriving from the University of Missouri as the UT-ORNL Governor’s Chair for Nuclear Medicine: Radiopharmaceutical Therapies, develops radioactive compounds designed to diagnose and treat disease. Radiopharmaceutical therapy agents can carry beta- or alpha-emitting radionuclides directly to cancer cells, delivering highly localized radiation. Companion positron emission tomography agents can reveal where those compounds travel in the body, helping clinicians select treatments and monitor responses. Kimberly Powell, also from Missouri, joins the College of Nursing as an associate professor specializing in precision health for aging populations. Her work examines health data, telehealth and text-messaging interventions that could make care more responsive to older adults’ needs.

Together, the eight appointments represent a deliberate expansion of UT’s research portfolio rather than a collection of isolated hires. Their fields share a common reliance on data, advanced modeling, engineered materials and partnerships across disciplines. From AI systems designed around human needs to insects that transform waste, quantum materials that could reshape computing and radiopharmaceuticals that target cancer, the researchers are working on technologies with both scientific and societal consequences. UT officials say the appointments will create new opportunities for students while accelerating collaborations with national laboratories, industry and public agencies—an approach intended to turn the university’s growing research capacity into visible advances in health, energy, manufacturing and environmental sustainability.

Subject of Research: Artificial intelligence, quantum devices, digital health, computational materials science, circular biomaterials, black soldier flies, nuclear medicine and precision health.

Article Title: University of Tennessee Recruits Eight Researchers to Expand Innovation Across AI, Quantum Science and Health

Web References: https://research.utk.edu/research-strengths/; https://research.utk.edu/partnerships/; https://news.utk.edu/2026/04/08/ut-names-new-governors-chair-for-quantum-devices/; https://news.utk.edu/2026/05/06/ut-names-governors-chair-for-circular-biomaterials/; https://news.utk.edu/2026/07/27/ut-names-governors-chair-for-nuclear-medicine/

References: University of Tennessee, Knoxville; Oak Ridge National Laboratory; Y-12 National Security Complex; Tennessee Valley Authority.

Image Credits: University of Tennessee

Keywords: University of Tennessee, research priorities, artificial intelligence, quantum computing, digital health, computational modeling, biotechnology, sustainable materials, circular bioeconomy, nuclear medicine, radiopharmaceuticals, precision health, nursing, aging populations, black soldier flies.

At the core of this research lies the unique class of materials known as antiferromagnetic kagome semimetals. These materials exhibit a highly frustrated lattice geometry named after the traditional Japanese kagome basket-weaving pattern, resulting in a web of interlinked triangles. This topology induces complex interactions among electron spins, fostering an environment where geometric frustration and strong spin correlations interface with the electronic band topology. Such interplay in the kagome lattice has driven considerable interest, as it allows the stabilization of exotic quantum phases and excitations, making these materials prime candidates for future antiferromagnetic spintronics applications.

The research team synthesized heterostructures combining FeSn, an antiferromagnetic kagome semimetal, with a Pt (platinum) layer. This interface engineering is pivotal because it intentionally breaks inversion symmetry, which plays a fundamental role in allowing Dzyaloshinskii–Moriya interactions (DMI) to emerge. DMI is an antisymmetric exchange interaction known to stabilize chiral spin textures such as skyrmions and spin spirals, features that are otherwise prohibited in centrosymmetric environments. By precisely controlling the thickness of the FeSn layer and the resulting interface characteristics, the researchers demonstrated the ability to tune the strength of the DMI, thereby manipulating the spin configurations within the FeSn itself.

Magnetotransport measurements revealed an unconventional magnetoresistance response that deviates starkly from the well-understood Shubnikov–de Haas oscillations commonly associated with Landau quantization in high magnetic fields. In these FeSn/Pt heterostructures, the team observed damped oscillatory magnetoresistance within low magnetic fields, indicating a fundamentally different underlying mechanism. This magnetoresistance behavior presents as oscillations in electrical resistance when subjected to varying magnetic fields but cannot be accounted for by known classical or quantum oscillatory transport phenomena.

To elucidate the microscopic origins of these anomalous transport properties, the researchers employed magnetic force microscopy (MFM) under extreme conditions—a home-built system capable of operating at low temperatures and subjected to intense magnetic fields via the Steady High Magnetic Field Facility (SHMFF). Through direct real-space visualization, the MFM imaging unveiled a variety of topological spin textures at the FeSn/Pt interface. These topological magnetic structures—essentially localized, stable configurations of spin arrangements distinguished by their nontrivial spatial topology—offer compelling evidence that the anomalous magnetoresistance stems from magnetoelectric coupling induced by these spin textures.

The identification of these previously elusive antiferromagnetic topological spin textures represents a monumental milestone, as such textures are notoriously difficult to detect and manipulate compared to their ferromagnetic counterparts. Their presence signifies that topological protection and intricately intertwined spin states are achievable in antiferromagnetic materials, amplifying their potential utility in spintronic devices where low-energy dissipation and high-frequency operation are paramount.

Beyond merely documenting the discovery, this study provides vital insights into the complex interplay between geometric frustration, spin interactions, and band topology in the emergence of topological spin structures. The ability to control these textures through interfacial engineering and DMI tuning introduces a versatile platform for designing future devices that exploit robust topological states. This could revolutionize applications ranging from ultra-dense memory storage to quantum computation elements, where information encoding via spin configurations offers enhanced speed and efficiency.

Moreover, the observed magnetoresistance oscillations linked with topological spin states present a new diagnostic avenue for investigating the dynamic nature of antiferromagnetic spin textures. Conventional techniques often fall short in discerning such subtle magnetic phenomena, making the combination of precision heterostructure fabrication and advanced microscopy instrumental to advancing the field.

This investigation also underscores the significance of low-field magnetic regimes, which are more practical for technological applications compared to extreme magnetic conditions often required for observing quantum effects. Harnessing low-field topological magnetoresistance responses could pave the way for implementing these phenomena in commercial devices without necessitating high operational power or specialized infrastructure.

The successful integration of FeSn and Pt layers encourages exploration into other heterostructure combinations and material interfaces to broaden the spectrum of tunable topological magnetic phases. As the understanding of such systems deepens, it may lead to the discovery of novel quantum behaviors and unprecedented functionalities within antiferromagnetic spintronics.

In summary, the discovery of anomalous magnetoresistance oscillations tied unequivocally to topological magnetic textures in antiferromagnetic kagome semimetal heterostructures represents a transformative advancement bridging fundamental physics with applied material science. By revealing how interface-induced Dzyaloshinskii–Moriya interactions engineer complex spin textures manifesting in unique transport signatures, this work fundamentally enriches the toolbox for quantum materials research and spintronic innovation.

As the field moves forward, the implications of this breakthrough could ripple across multiple domains, including information technology, sensing, and quantum devices, heralding a new era where antiferromagnetic topological spintronic devices become not just theoretical constructs but tangible technological realities.

Subject of Research: Anomalous magnetoresistance and topological spin textures in antiferromagnetic kagome semimetal heterostructures

Article Title: Anomalous Magnetoresistance in an Antiferromagnetic Kagome Semimetal Heterostructures

News Publication Date: 29-Nov-2025

Web References:
https://doi.org/10.1002/adfm.202519240

Image Credits: FENG Qiyuan

Keywords

Physical sciences

The genesis of this symposium reflects a shared commitment by these organizations to not only advance fundamental understanding but also to translate that knowledge into clinical and therapeutic breakthroughs. Central to this mission is the cultivation of emerging scientific talent, representing a critical investment in the future of bioscience. Bringing together expertise from diverse subfields, the organizing committee has meticulously curated a program that encourages dynamic dialogue and cross-fertilization of ideas, enriching both developmental biology and stem cell research.

Leadership of the symposium is entrusted to a distinguished panel of early-career scientists, whose diverse institutional affiliations—from the University of Torino in Italy to the Allen Institute in the United States—exemplify the international and interdisciplinary nature of the event. Their collective experience and emerging leadership promise to drive a forward-looking agenda, encompassing both cutting-edge methodologies and conceptual frameworks that underpin the study of embryogenesis, cell differentiation, and tissue regeneration.

The symposium’s thematic architecture is designed around four core domains, each representing a critical frontier in contemporary research. The first domain, Data Analysis Across Scales, addresses the formidable challenges posed by the integration and interpretation of vast, multi-dimensional datasets. Speakers such as Christina Theodoris from the Gladstone Institute and Sadao Ota of the University of Tokyo are set to explore advanced computational frameworks and machine learning models that enable the dissection of complex biological networks from molecular to organismal levels.

Complementing these computational approaches, the second thematic pillar—Model Systems and the Organism—brings into focus the diverse in vivo and in vitro platforms employed for investigating developmental processes. Experts including Aguilera Castrejon from the Howard Hughes Medical Institute and Marta Shahbazi from the MRC Laboratory of Molecular Biology will discuss novel model systems ranging from genetically engineered mouse models to organoids, highlighting their utility in recapitulating human developmental dynamics and disease phenotypes.

Spatial Awareness, the third thematic focus, delves into the emergent field of spatial omics and tissue architecture. Researchers like Can Aztekin from the Max Planck Institute and Lynn Yap from Nanyang Technological University will elucidate state-of-the-art imaging techniques and spatial transcriptomics technologies that unravel cellular heterogeneity and positional information within developing tissues, fostering a more nuanced understanding of morphogenetic patterning and cellular interactions.

The final thematic domain, Cell Fates and Trials, casts light on the intricate mechanisms guiding stem cell lineage commitment and plasticity amid physiological and pathological contexts. Presenters such as Ariel Waisman from FLENI and Crystal Rogers from the University of California, Davis, will dissect signaling pathways, epigenetic regulation, and environmental cues that orchestrate cell fate decisions, with implications for regenerative medicine and cancer biology.

Beyond presenting pioneering research, the symposium serves as a professional crucible to cultivate soft skills crucial for scientific leadership. Workshops and panel discussions will emphasize mentoring, science communication, and ethical considerations, equipping early-career scientists with a holistic toolkit to navigate and shape the competitive research landscape.

The organizing committee envisions this symposium as a blueprint for future collaborative ventures, amplifying the voices of emerging leaders while building bridges across disciplines and continents. This integrative approach is emblematic of a broader movement towards open science and shared knowledge ecosystems, where transparency and collaboration accelerate discovery and societal impact.

The choice of Seattle as the symposium locale is strategic, given its vibrant biotech ecosystem and proximity to leading research institutions. The city’s infrastructure and scientific milieu provide fertile ground for fostering partnerships that extend beyond the symposium itself, catalyzing long-term collaborations and innovation pipelines.

As the field of stem cell and developmental biology accelerates towards uncovering the fundamental principles governing cell fate and tissue organization, the convening of thought leaders and rising stars at this symposium represents a pivotal moment. It underscores the necessity of interdisciplinary, international cooperation in tackling biological complexity and translating insights into transformative medical applications.

The Allen Institute’s involvement, underscored by its commitment to large-scale open science initiatives, ensures that data and discoveries emanating from the symposium will be accessible, reproducible, and poised to inform future research endeavors worldwide. This approach aligns with contemporary scientific paradigms emphasizing the democratization of knowledge.

Parallelly, the ISSCR and SDB’s vast professional networks and commitment to nurturing scientific careers underscore the symposium’s ambition to be not only a platform for research dissemination but also a catalyst for career development in a rapidly evolving scientific arena.

Prospective participants and interested parties are encouraged to monitor forthcoming announcements detailing the full program and speaker line-up, as the event promises to be a seminal convening for the developmental biology and stem cell research communities. This symposium is not just an event but a vital step toward shaping the next generation of scientific discovery.

Subject of Research:
News Publication Date:
Web References:
Image Credits: Allen Institute
Keywords: Stem cell research, Developmental biology, Cell biology, Data analysis, Model systems, Spatial omics, Cell fate

The genesis of this inquiry dates back to 1915 when skeletal remains of a young man were unearthed in the sacristy of a Dominican monastery on Margaret Island in Budapest. The site, linked historically to important royal burials, led archaeologists to hypothesize that the bones belonged to Duke Béla of Macsó, a scion of Hungarian and northern European aristocracy. Béla’s lineage was notable: a grandson of King Béla IV of Hungary on his maternal side and a descendant of the Scandinavian-rooted Rurik dynasty through his father, a lineage that shaped Eastern European history for centuries.

Initial anthropological examinations carried out by Lajos Bartucz in the early 20th century revealed multiple sword-inflicted injuries and trauma on the skeleton, evidencing a violent death inconsistent with a duel, but rather an orchestrated multiple assailant attack. However, the postcranial bones were perceived as lost until their serendipitous rediscovery in 2018 in a wooden box amidst thousands of other specimens in the Hungarian Museum of Natural History’s anthropology collection. This rediscovery catalyzed an international interdisciplinary project led by Tamás Hajdu and key collaborators from the Institute of Archaeogenomics at Eötvös Loránd University Research Centre.

The scientific team pursued a multi-dimensional forensic and bioarchaeological analysis aimed at delivering a comprehensive life and death narrative. Chronological validation through radiocarbon dating officers from distinct laboratories reaffirmed the medieval timeframe, while isotopic studies unveiled unique dietary patterns indicative of high aquatic protein intake—a factor that initially complicated carbon dating due to the “reservoir effect” sourced from ancient aquatic carbon. These stable isotope analyses also revealed mobility patterns, highlighting Béla’s early childhood origins likely traced to the Vukovar and Syrmia regions of the historical Macso Banat before relocating to the area around present-day Budapest in later childhood.

A detailed examination of the dental calculus magnified insights into medieval dietary habits. The microfossils embedded within the dental plaque were identified as starch grains from wheat and barley, showing signs of culinary processing such as milling and baking. These findings reflect a diet inclusive of cooked grains and baked bread, providing a glimpse into the alimentary culture of European nobility during the late Middle Ages.

Genomic sequencing performed in the Institute of Archaeogenomics played a pivotal role in confirming Duke Béla’s identity. The genetic data conclusively established him as the great-grandson of King Béla III and displayed a significant Scandinavian genetic heritage, coherent with the Rurik paternal lineage’s historical background. Notably, the genomic profile incorporated an Eastern Mediterranean element likely inherited maternally from Maria Laskarina, Béla IV’s consort and a Byzantine imperial descendant. This admixture paints a complex portrait of medieval European gene flow and dynastic connections.

The Y-chromosome haplogroup analyses aligned perfectly with documented paternal lineages of the Rurik dynasty, corroborating prior archaeological genomic research that linked 13th-century Rurikids to Béla. Intriguingly, contemporary descendants of the Rurikids exhibit genetic markers that further substantiate the lineage continuity, underscoring the fidelity of historical genealogical records.

Forensic anthropological scrutiny unraveled the violent circumstances surrounding Duke Béla’s demise. Analysis identified 26 perimortem injuries distributed between the skull and postcranial skeleton, which collectively suggest a coordinated attack by three assailants wielding at least two distinct bladed weapons—presumably a sabre and a longsword. The injury patterns imply that Béla faced his killers head-on, attempting physical defense despite suffering grievous wounds. The absence of armor injuries indicates vulnerability at the moment of assault, while the distribution and depth of the cuts imply a premeditated murder fueled by intense emotional motives, such as rage or hatred, rather than a calculated, cold-blooded execution.

Reconstructing the sequence of the assault, it appears the attack commenced with forceful strikes to the head and upper torso, followed by defensive wounds as Béla endeavored to shield himself, culminating in incapacitation and fatal blows once he had fallen. The assailants’ coordinated and relentless aggression provides a rare forensic window into medieval nobility’s violent power struggles, aligning closely with historical chronicles that recorded his assassination by Ban Henrik “Kőszegi” and his confederates in November 1272.

The integration of bioarchaeological, forensic, genetic, and historical data marks this project as a landmark example of multidisciplinary collaboration bridging natural and human sciences. Beyond solving an archaeological mystery, the study enriches our understanding of medieval European political turmoil, dynastic interrelations, and the lived experiences—including diet, mobility, and violence—of an individual situated at the crossroads of history.

This research, published in the renowned forensic journal Forensic Science International: Genetics, exemplifies how modern scientific techniques can revitalize centuries-old remains, providing robust data that clarify complex socio-historical narratives and refine genealogical myths. The preservation and study of such specimens contribute immensely to the body of knowledge on medieval aristocratic life and the devastating realities of political assassinations.

The collaborative effort drew on expertise from prominent institutions across Europe and the USA, including the Universities of Vienna, Bologna, and Helsinki, Harvard University, and several Hungarian research centers, illustrating the global significance and appeal of uncovering Europe’s medieval past through cutting-edge science.

The project’s findings underscore not only the advances in archaeogenomic technologies and forensic anthropology but also the growing imperative of interdisciplinary dialogue, where historical documents are no longer sole arbiters of truth, but partners alongside genetic data and material culture analyses. This approach opens pathways for future explorations into other enigmatic historical figures, potentially rewriting established chronicles with empirical precision.

In conclusion, the sensational identification and forensic reconstruction of Duke Béla of Macsó’s skeleton provide profound insights into medieval dynastic history, genetics, and violent episode reconstructions. It spotlights the potential for science to breathe life back into ancient narratives, making the past vividly tangible and intellectually accessible for contemporary audiences.

Subject of Research: Identification and forensic analysis of Duke Béla of Macsó’s skeletal remains from the 13th century.

Article Title: Murder in cold blood? Forensic and bioarchaeological identification of the skeletal remains of Béla, Duke of Macsó (c. 1245–1272).

News Publication Date: 5-Nov-2025.

Web References:

• Forensic Science International Genetics article DOI
• BioRxiv preprint

Image Credits: Illustration by Eötvös Loránd University.

Keywords: Genetics, Human genetics, Anthropology, Forensic anthropology, Archaeology, Human remains.

The research emerges from the vibrant discussions held during the Southern Youth Earth Science Forum and Symposium on Deep Space, Deep Sea, and Deep Earth, convened in Shenzhen, China, earlier in 2025. Drawing participants from nearly one hundred institutions worldwide, the symposium served as a catalyst for the formation of a collaborative spirit that transcends disciplinary and geographical barriers. Scientists agreed on the urgency of tackling grand scientific challenges through a multidisciplinary lens, reinforcing the perception that deep space, oceanic depths, and Earth’s interior are fundamentally linked in ways that traditional compartmentalized research methods cannot address.

To solidify this vision, attendees at the symposium issued a defining “Letter of Call for Actions,” highlighting the necessity for establishing the Deep Space-Deep Sea-Deep Earth Southern Collaborative Research Alliance. This ambitious initiative aims to propel cutting-edge cooperation, leveraging data sharing and integrating diverse expertise to create a powerful nexus of knowledge. The alliance is envisioned as a fertile ground where innovative AI-driven methodologies meet the complex dynamics of these three profound natural domains, fostering breakthroughs that can fundamentally alter humanity’s grasp of its surroundings.

The alliance’s core objectives extend beyond scientific exploration. It emphasizes nurturing a new generation of scientists equipped with interdisciplinary expertise, leadership acumen, and a forward-looking mindset that embraces cross-sector collaborations. By pooling resources from academic bodies and industry players, the alliance plans to catalyze technological innovation and translate research advances into impactful applications, particularly through the integration of artificial intelligence to optimize data analysis, resource allocation, and predictive modeling in Earth and space sciences.

Leading this charge, Professor Jian Lin of Southern University of Science and Technology elaborated on the profound synergy between the three deeps. “Human exploration within deep space, deep sea, and deep Earth is not just an interdisciplinary effort—it is a pivotal moment in redefining the boundaries of human knowledge and our relationship with the cosmos and our planet,” Lin said. This perspective highlights that progress in one domain often inspires technological and conceptual advances in the others, making combined explorations indispensable in the era of big data and AI.

Deep space research has entered a renaissance, bolstered by extraordinary technological advancements in telescopes, robotic probes, and astronautic missions. These innovations enable unprecedented examinations of the solar system and beyond, shedding light on planetary formation, cosmic phenomena, and the potential for extraterrestrial life. Study of seismic activity on celestial bodies such as the Moon and Mars relies heavily on Earth-based geophysical technologies adapted for space, illustrating the reciprocal benefits of cross-domain scientific methods.

Meanwhile, deep sea exploration confronts the daunting challenges of the ocean’s abyssal zones that extend beyond 200 meters into pitch darkness, down to the hadal depths surpassing 6,000 meters. These regions harbor extreme conditions that demand resilient and sophisticated submersible technology. Human-crewed vehicles such as the Trieste, Deepsea Challenger, and China’s Fendouzhe have achieved historic descents into the Mariana Trench, unveiling intricate geological structures and unique ecosystems previously unknown to science.

On a parallel track, deep Earth research delves into the planet’s hidden interior by applying advanced geophysical techniques such as seismic tomography, gravity field measurements, and electromagnetic surveying. Such research not only enriches our understanding of planetary processes like tectonic plate dynamics, mantle convection, and the geomagnetic field but also informs resource exploration and natural hazard prediction, providing critical insights for societal safety and sustainability.

China’s exceptional strides exemplify the momentum in the three deeps exploration landscape. For instance, the Chang’e-6 lunar probe successfully returned nearly two kilograms of lunar material from the far side of the Moon, while the Fendouzhe submersible’s record-breaking dive of over 10,900 meters demonstrated unmatched deep-sea operational capabilities. Concurrently, the deployment of the Mengxiang drilling vessel with an 11-kilometer ocean drilling capacity marks a leap forward in sampling Earth’s crust and deciphering its geodynamic behavior under extreme conditions.

The study’s authors emphasize that the technological breakthroughs achieved in each domain have fueled innovations across others. Lunar and Martian seismometers derive from terrestrial Earthquake monitoring technologies, while remote sensing methods refined in space exploration enhance Earth observation satellites. Similarly, oceanic and continental drilling technologies serve as prototypes for extracting subsurface samples from extraterrestrial bodies, exemplifying a virtuous cycle of technology transfer among the three exploration realms.

Projecting forward, the research team underscores the strategic importance of promoting technological synergy, combining AI, large-scale scientific instruments, classical techniques, and emergent innovation. Central to their vision is the cultivation of a vibrant community of young scientists who can navigate the complex interface of multidisciplinary research, drive innovation, and foster international partnerships. These efforts collectively aim to accelerate progress in understanding the three deeps while positioning humanity to address grand challenges encompassing planetary health and cosmic discovery.

In the age of exponential data growth and transformative AI capabilities, the integration of deep space, deep sea, and deep Earth exploration offers an unprecedented opportunity to revolutionize Earth and planetary sciences. The researchers assert that building a global community with shared goals will illuminate previously inaccessible dimensions of nature and the universe, advancing human knowledge and securing a brighter, more informed future.

This pioneering research initiative is supported by significant funding from the National Key Research and Development Program of China, the National Natural Science Foundation of China, and the Guangdong Natural Science Foundation. The consortium’s collaborative and cross-disciplinary ethos exemplifies a new era of scientific enterprise—one that aligns technological innovation with the collective quest to explore the deepest frontiers of space, ocean, and Earth.

Subject of Research: Earth sciences, Deep space exploration, Deep sea exploration, Deep Earth geophysics
Article Title: Deep Space, Deep Sea, Deep Earth
News Publication Date: 30-Sep-2025
Web References: http://dx.doi.org/10.34133/olar.0110
Image Credits: Jian Lin, Yiming Luo, Zhiyuan Zhou, and Fan Zhang
Keywords: Oceanography, Earth sciences, Space exploration, Seismology, AI in Earth sciences

The nitrogen cycle, a complex web of biological and chemical transformations, plays an indispensable role in sustaining marine productivity. Nitrogen, an essential nutrient for all life forms, especially marine phytoplankton, enters the oceanic ecosystems primarily through nitrogen fixation, is recycled via processes such as nitrification and denitrification, and is ultimately lost through burial or atmospheric escape. Disruptions to this cycle have profound implications for oceanic food webs, carbon sequestration, and even atmospheric chemistry. Understanding the long-term stability of this cycle is paramount in reconstructing Earth’s past environments and predicting future climatic trends.

Led by a multidisciplinary team, including paleoceanographers, geochemists, and modelers, the study synthesized an unprecedented volume of isotopic and geochemical data gathered from marine sediments and fossil records spanning from the Jurassic period to the modern era. Their approach combined novel isotopic proxy analyses with state-of-the-art earth system modeling to decipher nitrogen cycle intricacies over geological timescales. This dual methodology allowed the researchers not just to trace changes in nitrogen reservoirs but also to attribute those changes mechanistically to shifts in ocean oxygenation and biological productivity.

Crucially, the study utilized nitrogen isotope ratios preserved in organic and mineral matrices within sedimentary deposits—an innovative biomarker of past nitrogen cycle behavior. These proxies, reflecting the relative contributions of various nitrogen processes, provided a window into historical marine conditions. Despite the dramatic tectonic shifts, changes in ocean circulation, and mass extinction events that punctuated the last 165 million years, these isotopic signatures revealed astonishing steadiness. Such findings raise compelling questions about the feedback mechanisms that regulate the marine nitrogen cycle and maintain its balance through geologic upheavals.

One of the most intriguing aspects emerging from the research is the implied robustness of ocean oxygen minimum zones (OMZs) and their controlling influence on nitrogen transformations. OMZs, regions where oxygen concentration plummets, serve as hotspots for nitrogen loss via denitrification and anammox pathways. The interplay between oceanic oxygen levels and nitrogen cycling has long been considered a volatile feedback loop sensitive to climate perturbations. However, the study’s data show that despite intervals of widespread oceanic anoxia and hypoxia, the overall nitrogen cycling pathways adjusted dynamically without collapsing—signaling a resilient and adaptive marine microbial ecosystem.

This stability has not only ecological but also climatic consequences. Nitrogen availability directly influences primary productivity, which in turn regulates carbon dioxide fluxes between the atmosphere and ocean. By stabilizing nitrogen inputs and losses, ancient marine ecosystems effectively contributed to climate homeostasis over evolutionary timescales. The researchers postulate that this built-in resilience may have buffered Earth’s biosphere against more catastrophic swings in climate and ocean chemistry, thereby enabling the persistence and evolution of complex marine life.

Moreover, the study aligned its geochemical findings with paleoclimate reconstructions, demonstrating that nitrogen cycle stability coincided with long intervals of relative climate equilibrium as well as periods marked by greenhouse warming and cooling events. This spectrum of environmental conditions showcases the nitrogen cycle’s capacity to maintain functionality across diverse ecological regimes. The implications extend further: understanding these ancient feedback loops provides a blueprint for assessing how current anthropogenic impacts might disrupt or be mitigated by natural nitrogen cycle processes.

In addition to isotopic data, the team employed advanced biogeochemical modeling that integrated nitrogen cycling with ocean circulation and microbial ecology components. These models, calibrated with proxy data, simulated scenarios of ocean deoxygenation and nutrient flux changes. Remarkably, the simulations exhibited self-regulating behaviors that reinforce the observational deductions of nitrogen cycle resilience. Such insights illuminate previously underappreciated stabilizing forces embedded within the ocean’s nitrogen economy and suggest potential avenues to predict future cycle responses under ongoing climate change.

From an evolutionary biological perspective, the persistence of nitrogen cycle stability over millions of years may have fostered a relatively consistent nutrient supply that supported the diversification and complexity of marine ecosystems. It suggests that essential biogeochemical cycles were not merely passive environmental backdrops but active modulators shaping life’s evolutionary trajectory. These revelations open new frontiers in paleoecology and underscore the importance of integrating geochemical signals with organismal and ecosystem evolution studies.

Furthermore, the findings challenge earlier hypotheses that posited frequent and severe disruptions in nitrogen cycling due to ancient oceanic anoxic events and mass extinctions. Instead, the marine nitrogen cycle appears to have functioned more like a robust, adaptive network capable of withstanding environmental shocks while maintaining critical biological functions. This perspective compels scientists to rethink the dynamics of Earth’s nitrogen budget and the resilience thresholds of marine ecosystems in deep time.

The study’s ramifications also resonate with modern environmental science, particularly in understanding how nitrogen cycling might respond to ongoing anthropogenic pressures such as ocean deoxygenation, eutrophication, and climate warming. While rapid human-induced changes are unprecedented in scale and speed, historical patterns of nitrogen cycle endurance provide a hopeful framework for anticipating potential recovery pathways or cascading failures. This knowledge is invaluable for devising conservation strategies and mitigating oceanic nutrient imbalances.

In a broader context, the research exemplifies the power of interdisciplinary collaboration, where geological, chemical, and biological sciences converge to decode the intricate narratives of Earth’s history. By bridging proxy measurements with robust models, the authors not only reconstructed a steady marine nitrogen cycle but also elucidated the underlying mechanisms, offering a holistic understanding of the biogeochemical equilibrium that sustains ocean life.

In conclusion, the revelation of steadfast marine nitrogen cycling over an astonishing 165 million years compels a profound reconsideration of oceanic nutrient dynamics and their role in Earth’s resilience. It challenges long-standing paradigms, enriches our comprehension of past climates and ecosystems, and provides critical insights for navigating the anthropogenic era. As humanity grapples with unprecedented environmental transformations, this study’s findings illuminate the enduring strength of Earth’s natural cycles, serving both as a beacon and a blueprint for sustaining marine ecosystems into the future.

Subject of Research: Stability and resilience of the marine nitrogen cycle over geological timescales.

Article Title: Stability of the marine nitrogen cycle over the past 165 million years.

Article References:
Godfrey, L.V., Omta, A.W., Tziperman, E. et al. Stability of the marine nitrogen cycle over the past 165 million years. Nat Commun 16, 8982 (2025). https://doi.org/10.1038/s41467-025-63604-x

Image Credits: AI Generated

When SARS-CoV-2, the coronavirus that causes COVID-19, began spreading worldwide in 2020, many research teams immediately set to work developing a vaccine against it. Building on decades of previous work on mRNA technology and on other viral vaccines, including HIV, they achieved their goal within the year. The most widely used mRNA vaccine design contains the genetic instructions for the body to make the spike protein that the virus uses to enter cells. The resulting immune response protects against infection and, more importantly, disease and death. However, developing a vaccine for HIV has proven much more difficult.

“The COVID-19 vaccines were an enormous achievement but the spike protein on SARS-CoV-2 was like low-hanging fruit for vaccinologists,” said Dr. John Moore, professor of microbiology and immunology at Weill Cornell Medicine and part of an international team that has brought biomedicine closer than ever to an HIV vaccine. “It behaves like its counterparts on viruses for which vaccines are relatively easy to develop, such as influenza. Unfortunately, we learned back in the 1990s how hard it is to make an HIV vaccine.”

Building a stable env protein

The goal of immunization with a viral protein, or some portion of it, is to limit infection by teaching the body to generate neutralizing antibodies that bind to these viral proteins and block their interaction with the receptors found on the cell’s surface. These antibodies can also flag virus-infected cells for destruction by other immune system components.

For SARS-CoV-2, this viral target is called the spike protein; its counterpart on HIV is the envelope (Env) protein trimer. But HIV researchers attempting to target Env in the 1990s discovered that when the three-subunit Env protein is produced in the laboratory it promptly falls apart. To create vaccine candidates for HIV, and later SARS-CoV-2 and respiratory syncytial virus (RSV), it was critical to engineer this kind of multi-subunit vaccine to be more stable.

In 1998, with funding from the National Institutes of Health, Dr. Moore launched an HIV vaccine project to tackle this problem. The challenge was engineering an Env protein trimer that was hardier but still resembled the original closely enough to elicit appropriate antibody responses in test animals, and then people. Dr. Moore was soon joined by Rogier Sanders, a graduate student who came from Amsterdam to work on the project as part of his dissertation. The first advance, published in 2000, involved engineering a new chemical bond that helped key trimer components to stick together without distorting their overall structure. The second key development, in 2002, was swapping one amino acid for another in one of the trimer subunits to fix another major source of instability.

Over the next decade, Dr. Sanders, working with Dr. Moore after he returned to Amsterdam, made several more modifications to the Env protein that enabled them to eventually build a truly stable trimer. They named it SOSIP.664, a term reflecting the nature of the successful modifications.

A collaboration with structural biologists Dr. Ian Wilson and Dr. Andrew Ward at Scripps Research in La Jolla provided critical insights by showing what the new trimer designs looked like when viewed by electron microscopy. The project also involved what Dr. Moore refers to as “sheer grunt work”. To find the best mimic of the Env protein as it appears on the surface of HIV, the team obtained genetic information for about 100 different HIV strains from around the world and then synthesized SOSIP.664 trimers from all of them. A battery of laboratory tests and, above all, structural analyses by the Scripps team enabled the researchers to find the genetic sequences that produced the best Env trimer.

This optimal sequence, designated BG505, was isolated from an infant born with HIV in Kenya by Dr. Julie Overbaugh of the Fred Hutch Cancer Center and her colleagues at the University of Nairobi. To help further HIV research, they had shared the information with the International AIDS Vaccine Initiative (IAVI), a co-funder of Dr. Moore’s team at that time.

A final breakthrough occurred when electron microscopy images showed how the assembled trimers were attracting fat molecules, causing them to aggregate into useless clumps. Once the researchers removed that part of the protein, they had the stable, engineered Env protein they wanted. They named it BG505 SOSIP.664.

Eliciting broadly neutralizing antibodies

Another major challenge in developing an HIV vaccine is that the virus mutates rapidly to evade detection by the immune system. Thus, people living with HIV around the world carry different versions of the Env protein. “It’s akin to what we saw with the COVID-19 variants, but much, much worse,” Dr. Moore said. An effective HIV vaccine must coax the immune system to make “broadly neutralizing antibodies” (bNAbs) capable of attacking many forms of the virus. “We know these antibodies exist, because some infected people make them, and we could show they bound to our SOSIP trimers,” added Dr. Moore. He and his colleague, Dr. P.J. Klasse, professor of research in microbiology and immunology at Weill Cornell Medicine, have been studying HIV neutralizing antibodies for over 25 years.

But could BG505 SOSIP.664 and other trimers the team soon made stimulate the production of bNAbs? Early tests in animal models showed that the BG505 trimers elicited antibodies specific for the infant’s strain, but not the bNAbs that neutralize a broad sample of viruses. The quest continued, now guided by ever-increasing knowledge of the underlying immunology.

Now, leading investigators are pursuing a multi-step immunization process known as “germline-targeting” to generate a lasting HIV vaccine response. This strategy involves activating the antibody-producing cells that make precursors of the broad neutralizers, then coaxing those antibodies along a path to full activity. A germline targeting SOSIP trimer, re-designed by the Sanders’ team and designated GT1.1, is in human trials supported by the Gates Foundation. A recent paper reported success in generating the desired bNAb precursors in a group of healthy volunteers. In an accompanying editorial, Weill Cornell professors Drs. Sallie Permar and Patrick Wilson outline why this approach to an HIV vaccine is so promising. Follow-up clinical trials in Africa are in progress or being planned also. The Moore/Sanders team is continuing its multi-year collaboration with the Permar group to further evaluate the GT1.1 trimer at the pre-clinical stage, as the accrued information can inform clinical trial design.

Progress in jeopardy

Projected decreases in NIH support for vaccine research and development, and other reductions in federal spending, could jeopardize these promising advances. Private philanthropy, including from the Gates Foundation, is vital, but can’t fully compensate for federal funding.

“The NIH has funded the basic design and development work for SOSIP trimer vaccines for over 20 years,” said Dr. Moore. “These were competitive grants. Everything is at risk.” But whatever the future holds, he notes how the COVID vaccines used the same principle of engineering stability into the spike protein. “So indirectly, our work on HIV helped make the COVID mRNA vaccines work as well as they did.”

Methanetetrol, the synthesized compound, represents an exceedingly rare and unstable molecular structure categorized as an ortho acid. It is composed of a single carbon atom bonded to not one but four hydroxyl (-OH) groups, a configuration that challenges entrenched chemical stability norms. Oxygen atoms typically avoid bonding closely to one another due to repulsive electronic forces, rendering this molecule highly prone to breakdown under standard conditions. Despite this inherent instability, methanetetrol’s formation and identification open new possibilities for understanding complex organic chemistry in the extreme environments of outer space.

To replicate extraterrestrial conditions, the research team employed ultra-cold laboratory techniques, freezing water and carbon dioxide ices to temperatures approaching absolute zero. These ices were then subjected to radiation mimicking cosmic rays—high-energy particles known to bombard interstellar ices and drive chemical reactions in space. Through this innovative approach, methanetetrol was sublimated from ice into its gaseous form, enabling its detection and spectroscopic characterization using advanced ultraviolet light methodologies. This technique allowed the researchers to bypass the compound’s fleeting lifespan and directly observe its molecular signature.

Ralf Kaiser highlighted the technical challenges overcome in this study, noting that detecting an alcohol with four hydroxyl groups attached to the same carbon atom pushed the boundaries of both experimental and computational chemistry. The laboratory setup and analytical tools had to be refined beyond previous attempts in a painstaking effort that spanned over five years. Their success not only validates innovative techniques in astrochemical synthesis but also provides a critical benchmark for future studies of prebiotic molecules in both terrestrial and extraterrestrial settings.

The significance of methanetetrol extends beyond its unique chemistry. Ryan Fortenberry eloquently described the molecule as a “prebiotic concentrate”—a molecular seed with potential to evolve into more complex organic systems under appropriate environmental influences. Just as an acorn cannot grow into a mighty oak tree without sunlight, water, and nurturing soil, methanetetrol alone cannot create life but may serve as a fundamental starting point in the chain of reactions that lead to life’s building blocks. This metaphor encapsulates the delicate yet potent nature of this molecule in the broader context of chemical evolution.

Methanetetrol’s molecular instability is a double-edged sword. On one hand, its weakness means that it rapidly decomposes into simpler substances such as water and hydrogen peroxide once energized. These breakdown products themselves have profound biological significance. Water is essential for life, and hydrogen peroxide plays versatile roles in biochemical pathways, including oxidative stress responses. Thus, even the demise of methanetetrol may release a cocktail of bio-relevant molecules, fueling further chemical complexity that could eventually nurture habitable conditions.

The research group’s ability to recreate this molecular synthesis in the lab suggests that methanetetrol could form naturally in space, especially within cold interstellar ices exposed to radiation fields analogous to those in cosmic environments. This discovery is particularly tantalizing for astrochemists seeking “life-supporting” regions beyond Earth, as identifying such molecules in situ could hint at widespread availability of prebiotic chemistry elsewhere in the galaxy. Oxygen’s omnipresence in space and its role as a major constituent of organic and inorganic radicals underscore the importance of oxygen-rich molecules like methanetetrol in the cosmic chemical inventory.

Furthermore, this finding enhances our comprehension of cosmic chemical pathways and enriches the catalog of complex organic molecules detected or hypothesized in molecular clouds, comets, and icy moons. The formation of methanetetrol in cold interstellar environments implies that even highly unstable, oxygen-dense molecules may serve as transient nodes in the reaction networks forging life’s chemical precursors. By bridging gaps between simple molecules such as water and carbon dioxide and more complex organics, methanetetrol helps illuminate the intricate chemistry that precedes biogenesis.

This research was supported by the National Science Foundation, emphasizing the high priority and broad scientific interest in unraveling the molecular underpinnings of life’s origins across disciplines. The interdisciplinary collaboration spanning astrochemistry, computational chemistry, and experimental physical chemistry exemplifies the increasingly integrated approach required to tackle challenges at the frontiers of science. Their findings, published in the prestigious journal Nature Communications, offer a compelling testament to human ingenuity and the relentless pursuit of knowledge about our cosmic heritage.

Beyond its immediate scientific impact, methanetetrol’s synthesis invites philosophical reflections on our cosmic existence. Finding a molecule that can act as a chemical “seed” underpins the broader narrative that life is a continuation of universal chemical evolution. The extreme conditions of space, once thought inimical to complex chemistry, now appear to be fertile grounds where fundamental organic molecules—not just inert dust—exist and evolve. This realization shifts our perspective on astrobiology and encourages the search for life’s signatures in the most unexpected corners of the universe.

As future missions and astronomical observations refine our detection capabilities for complex molecules in space, methanetetrol provides a new marker to guide such endeavors. Its distinctive spectral features may assist astronomers in identifying candidate star-forming regions or solar system bodies where prebiotic chemistry is unfolding. Ultimately, this knowledge enriches humanity’s quest to answer profound questions about the distribution of life’s primal building blocks and the potential ubiquity of life itself beyond Earth.

In summary, the successful laboratory synthesis and characterization of methanetetrol represent a milestone in astrochemistry, pushing experimental and theoretical methods to unprecedented limits. This compound’s unique structure, instability, and biological implications position it as a vital piece in the puzzle of cosmic prebiotic chemistry. The discovery offers new insights into the molecular frontier that bridges dust, ice, and life, promising to guide future explorations that probe the very origins of life in the universe.

Subject of Research: The synthesis and characterization of methanetetrol, an elusive ortho acid, and its implications for prebiotic chemistry and astrochemistry.

Article Title: Methanetetrol and the final frontier in ortho acids

Web References:
https://www.nature.com/articles/s41467-025-61561-z
http://dx.doi.org/10.1038/s41467-025-61561-z

Keywords

Astrochemistry, Cosmochemistry, Cosmic dust

Since its mysterious onset in 2013, SSWD has decimated sea star populations, with the sunflower sea star (Pycnopodia helianthoides) receiving the harshest blow. These remarkable creatures, capable of growing as large as a bicycle tire with up to 24 arms, have faced over 90 percent population loss across their broad range stretching from the shores of Alaska down to Mexico. This catastrophic decline has not only pushed the sunflower sea star to the brink of extinction but has also set off a cascade of ecological shifts that ripple through coastal food webs.

The protracted hunt for the cause of SSWD culminated in a meticulous four-year investigation involving international collaboration among scientists from the Hakai Institute, University of British Columbia, University of Washington, and various conservation organizations. Researchers first sifted through an array of potential pathogens, including viruses, but the breakthrough came with the identification of abnormally high concentrations of Vibrio pectenicida in the coelomic fluid—often described as the “blood” of sea stars—of diseased individuals. This microbe was ultimately proven to be the direct agent causing the disease, as experiments confirmed that injecting cultured V. pectenicida strain FHCF-3 into healthy sea stars triggered the rapid onset of wasting symptoms and death.

Vibrio bacteria belong to a notorious genus known for their devastating impacts across diverse marine species and even humans—for instance, Vibrio cholerae is the well-known cause of cholera. The pathogenic strain Vibrio pectenicida has previously been documented in shellfish epidemics, driving swift and fatal infections in scallop larvae. Its addition to the roster of marine pathogens adds a new layer of urgency to the study of marine microbial ecology and the increasing vulnerability of ocean life to diseases.

SSWD’s clinical progression is alarming and swift. Once infected with V. pectenicida FHCF-3, sea stars develop visible lesions and a grotesque “melting” of tissue that unfolds over about two weeks. Affected individuals often show characteristic contortion and arm loss, a physically debilitating manifestation that leaves no doubt about the severity of the infection. For species like the already beleaguered sunflower sea star, these symptoms spell ecological disaster, as population crashes diminish their critical role as predators of kelp-grazing sea urchins.

Ecologists emphasize the broader repercussions of the sea star collapse. Melanie Prentice, evolutionary ecologist and lead author of the study, highlights how the loss of billions of sea stars has inadvertently allowed sea urchin populations to explode. This surge in urchins has led to overgrazing of kelp forests, stripping away habitats that serve thousands of marine species and depriving coastal communities of economic and ecological benefits. Kelp forests are not merely underwater greenery; they function as essential carbon sinks, safeguard shorelines against erosion and storms, and form an integral cornerstone of cultural identity for many Indigenous peoples.

The discovery of V. pectenicida as the causative agent allows scientists to pivot from diagnosing the problem to innovating solutions. By having a concrete pathogen in focus, researchers and conservationists can now develop diagnostic tests akin to those used during human pandemics, enabling early detection and monitoring in wild and captive sea star populations. Such targeted approaches could revolutionize recovery attempts, facilitating safer translocations, breeding programs, and even experimental reintroduction efforts.

Furthermore, the study opens avenues for exploring environmental factors that exacerbate the disease. Alyssa Gehman, senior author and marine disease ecologist, notes the strong correlation between Vibrio bacteria and warmer ocean temperatures. Given that Vibrio proliferates dramatically during marine heatwaves, the rising frequency and intensity of ocean warming under climate change raise urgent questions about disease dynamics. The possibility that colder, more stable marine environments like British Columbia’s fjords could serve as refuges for vulnerable species adds a hopeful dimension to conservation planning.

The implications of this research extend beyond sea stars. It exemplifies how marine microbial pathogens can reshape ecosystems in profound ways, underscoring the intricate connections between disease, climate, and biodiversity. As marine heatwaves become more common, understanding the temperature sensitivity of pathogens like V. pectenicida is critical for predicting future outbreaks and establishing proactive management strategies.

With the causative agent identified, multi-institutional teams are now developing innovative interventions. These include evaluating probiotics and phage therapy to counteract bacterial infections, protocols for screening and quarantining sea stars before reintroduction, and genetic studies aimed at discovering disease resistance among individual sea stars. Captive breeding and controlled outplanting programs are underway, poised to replenish populations in regions where recovery is feasible.

The collaborative effort behind this discovery is notable. Institutions spanning academic, governmental, and conservation sectors combined expertise and resources to achieve this milestone. Funders such as The Nature Conservancy and the Tula Foundation facilitated the extensive laboratory and field research conducted at the University of British Columbia and the U.S. Geological Survey’s Marrowstone Marine Field Station.

Beyond the scientific breakthrough, this story carries a broader message about the importance of understanding marine diseases and their intersection with environmental change. As scientists like Melanie Prentice draw parallels with human experiences during the COVID-19 pandemic, the newfound capacity to test for SSWD gives conservationists a powerful tool to make informed decisions, avoid unintended spread of pathogens, and devise adaptive interventions.

This discovery heralds a new chapter in marine ecology and conservation. By pinpointing Vibrio pectenicida as the microbial pathogen behind sea star wasting disease, scientists have illuminated a critical threat and laid the foundation for restoring both a keystone species and the fragile ecosystems that depend on it. The journey from mystery to understanding exemplifies the power of rigorous science and international cooperation in confronting environmental crises and underscores hope for a future where once-thriving kelp forests and their vibrant marine communities can recover and flourish.

Subject of Research: Animals

Article Title: The causative agent of sea star wasting disease

News Publication Date: August 4, 2025

Web References:

• DOI link
• Recovery Roadmap for Sunflower Sea Star
• IUCN Red List for Pycnopodia helianthoides

References: See publication in Nature Ecology & Evolution, August 2025, DOI 10.1038/s41559-025-02797-2

Keywords: sea star wasting disease, Vibrio pectenicida, marine epidemic, sunflower sea star, kelp forest ecosystems, marine disease ecology, microbial pathogen, marine heatwaves, conservation biology, marine microbiology, climate change impact, aquatic disease

ISTA, which has steadily established itself since its founding in 2009 as a hub of frontier research in natural sciences, mathematics, and computer science, welcomes this collaboration as a powerful catalyst for innovation. The newly expanded partnership between NOMIS and ISTA aims to cultivate a fertile environment for pioneering research efforts that embrace uncertainty and challenge conventional thinking. These interdisciplinary projects, once selected, will have a duration of up to four years, allowing researchers to explore ambitious hypotheses and methodologies that might be overlooked in traditional funding frameworks.

Martin Hetzer, President of ISTA, emphasizes the intrinsic value of this partnership in propelling high-risk, high-reward scientific inquiry. He articulates the institute’s core ambition to pursue “ideas that no one has dared to explore before,” underlining the importance of courage and visionary thinking in driving scientific progress. This ethos resonates deeply with NOMIS’s mission to champion research that has the capacity to deliver profound contributions to human knowledge and, by extension, global well-being.

From the perspective of NOMIS Foundation Managing Director Markus Reinhard, the collaboration is more than just a financial commitment; it is an embodiment of their vision to “ignite sparks” within the scientific community. He stresses that long-term solutions to humanity’s most pressing challenges require an unwavering commitment to pushing the frontiers of knowledge. By endorsing science with transformative potential, the foundation seeks to stimulate discoveries that inspire and positively impact society and the environment on a global scale.

The annual selection process will be stringent, aimed at identifying a limited number of interdisciplinary projects that demonstrate exceptional originality and potential for breakthrough outcomes. These projects must align with ISTA’s vibrant research culture, characterized by a rigorous scientific methodology, innovative tools, and a collaborative ethos that transcends disciplinary boundaries. The integration of diverse scientific perspectives is fundamental to uncovering novel insights and accelerating the pace of discovery in complex, multifaceted research landscapes.

On a technical level, the funded projects are anticipated to harness cutting-edge technologies and methodologies, including advanced computational modeling, high-resolution imaging techniques, and state-of-the-art data analytics. The aim is to delve into fundamental scientific questions that have so far resisted conventional approaches. By leveraging ISTA’s advanced infrastructure and the intellectual synergy fostered within its 90 research groups, the program aspires to tackle grand challenges across multiple scientific domains.

This partnership also represents a strategic alignment of institutional values, combining NOMIS’s philanthropic drive with ISTA’s commitment to academic excellence and scientific rigor. It reinforces a shared understanding that transformative innovation emerges from environments where intellectual freedom is safeguarded, and researchers are encouraged to test bold hypotheses without the fear of failure. Such an ecosystem is essential for nurturing groundbreaking ideas that have the capacity to redefine entire fields of study.

The funding period, scheduled to span from 2026 to 2030, is designed to provide sustained support that enables researchers to undertake long-term investigations. This approach contrasts with many contemporary grant mechanisms that favor short-term projects, often limiting the scope and depth of scientific exploration. By committing resources over multiple years, the collaboration anticipates fostering sustained momentum in experimental design, hypothesis refinement, and iterative knowledge generation.

Moreover, ISTA’s location near Vienna provides a strategic advantage by positioning the research environment within a European scientific nexus, facilitating collaborations across continental networks and broadening the impact of funded projects. The synergy between the Institute’s talented scientific cohorts and NOMIS’s visionary funding strategies exemplifies a modern model for science philanthropy, one that prioritizes boldness, interdisciplinarity, and societal relevance.

The details of the upcoming funding program will be announced publicly in the fall leading up to the kick-off in 2026, promising a transparent and competitive selection process. Researchers worldwide will have the opportunity to submit proposals, thereby infusing the program with a global dimension. This openness not only heightens the caliber of potential projects but also ensures that ISTA remains at the frontier of scientific excellence, attracting top talents motivated to push the limits of current paradigms.

In conclusion, this substantial investment from the NOMIS Foundation marks a milestone in the landscape of scientific research funding. It symbolizes a commitment to elevating risk-tolerant, boundary-pushing science, underpinning the growth of knowledge that transcends conventional limits. By supporting ISTA’s mission to foster a dynamic environment where daring ideas flourish, the collaboration stands to catalyze discoveries that could revolutionize multiple areas of science and, ultimately, the human condition.

Subject of Research: Interdisciplinary high-risk, high-reward scientific research across natural sciences, mathematics, and computer science.

Article Title: NOMIS Foundation and ISTA Announce €20 Million Investment to Propel Groundbreaking Science from 2026

News Publication Date: Not specified in the source text.

Web References:

• NOMIS Foundation – https://nomisfoundation.ch/
• Institute of Science and Technology Austria (ISTA) – https://ista.ac.at/en/home/

Image Credits: NOMIS Foundation / ISTA

Keywords: Science projects, Scientific organizations, Research programs, Scientific community, Research organizations, Scientific foundations