I am writing from Argentina as a researcher working within the country’s national scientific system. While discussions about science funding are often framed in terms of budgets and economic indicators, the reality is experienced in laboratories, offices and research facilities where scientific knowledge is produced.

Today, many of us in Argentina are witnessing a progressive deterioration of Argentine science, both in terms of infrastructure and human capital.

I am based at the Comisión Nacional de Energía Atómica (CNEA), where uncertainty has become routine. Hundreds of employees remain on temporary contracts that can be terminated without warning. On 1 July 2026, a total of 61 colleagues lost their jobs, with armed military police officers occupying the building to contain a peaceful employee protest. Beyond the immediate human cost, these dismissals are steadily dismantling scientific capabilities that have taken decades to build.

The impact became tangible when my colleague Paula Alderete, an experienced electron microscope specialist, lost her position. Alderete, who has published two papers with me, was responsible not only for operating a highly specialized instrument, but also for maintaining it and supporting dozens of research projects.

Without Paula Alderete’s expertise, our lab’s electron microscope has become largely unusable. It is a quiet reminder that scientific infrastructure depends as much on people as on expensive equipment.

Faramarz S Gard

Without her expertise, the microscope has become largely unusable. Every morning I pass her empty desk on my way to the laboratory. It has become a quiet reminder that scientific infrastructure depends as much on people as on expensive equipment.

The deterioration extends beyond personnel. In my laboratory, an X-ray photoelectron spectroscopy (XPS) instrument worth more than $1m must sometimes be protected with plastic sheets because rainwater leaks through the roof.

Equipment designed to operate under tightly controlled environmental conditions is now exposed to circumstances that threaten its long-term reliability. Similar situations are becoming increasingly common across Argentina’s universities and research institutes as maintenance budgets shrink and infrastructure ages.

Argentina has a scientific tradition that reaches far beyond its borders. The country has produced five Nobel laureates, including three in the sciences, and has made internationally recognized contributions to nuclear technology, medicine, agriculture, astronomy and materials science. Institutions such as CNEA, CONICET (Argentina’s national research council) and the national universities have trained generations of researchers whose work has strengthened international collaborations and advanced scientific knowledge worldwide.

Scientific systems rarely collapse through a single dramatic event. They decline incrementally: one technician dismissed, one laboratory left unrepaired, one instrument taken out of service, one young scientist deciding to build a career elsewhere. These individual losses accumulate into a weakening of scientific capacity that may take decades to rebuild.

When a country loses the expertise required to operate advanced laboratories or maintain unique scientific infrastructure, the consequences extend beyond national borders.

Faramarz S Gard

This should concern more than Argentina. Modern science depends on international networks of researchers, shared facilities and long-term collaboration. When a country loses the expertise required to operate advanced laboratories or maintain unique scientific infrastructure, the consequences extend beyond national borders.

Knowledge is lost, collaborations weaken, and opportunities for discovery diminish.scientific infrastructure is more than buildings and instruments; it is the people whose expertise gives those resources value. Once that expertise disappears, replacing it is far more difficult than preserving it.

The empty desk of a single scientist may seem insignificant, but multiplied across laboratories and institutions, it becomes a warning of how a research system is quietly dismantled. Argentina’s experience is therefore not only a national concern but also a reminder that scientific capacity, wherever it exists, is a global resource that is remarkably difficult to rebuild once lost.

I write this letter not only to describe a difficult situation but also to call attention to the broader consequences of sustained disinvestment in science. The international scientific community should recognize that the erosion of research systems in countries such as Argentina represents a loss not only for those nations but for global science itself.

Science is built by people, sustained by institutions, and enabled by infrastructure. Today, all three are under increasing strain in Argentina.

The post Letter from Argentina: ‘an empty desk and an idle electron microscope signal the erosion of the country’s science’ appeared first on Physics World.

The National Science Foundation (NSF) has announced a new initiative to convert new research into products and industries. The $1.5bn programme, called X-Labs, however, has been criticized by some in the US scientific community given that financing the plan could come via cutting the budgets of current NSF directorates by as much as 30%.

The NSF says that the first round of X-Labs funding will focus on two areas – one on quantum sensing and AI-driven computational imaging while the second area will be in the development of quantum information and computing.

The projects that are chosen will receive $1.5m over a nine-month period to carry out further work. The NSF will then select projects to move onto the next phase in which they will receive a further $10–50m per year for 2–3 years.

According to an NSF spokesperson, X-Labs are designed to “spur progress on platform technologies critical to US competitiveness”, supporting high-risk, high-impact research that requires “substantial resources beyond traditional mechanisms”. A key goal of the handful of labs, the spokesperson adds, is to “reduce the time it takes to go from insight to impact through this new investment framework”.

While critics don’t have an issue with the concept, there are concerns that it is coming at the expense of basic research. Former presidential science adviser and former NSF director Neal Lane told Physics World that X-Labs is a “terrible idea”.

“There’s been a push to get more practical and get NSF involved in ensuring that science it funds actually makes it to the marketplace,” adds Lane. “But suddenly it’s been taken to extremes by the Trump administration. They’re trying to cut as much basic research as possible and put it all into an experimental programme.”

‘Without precedent’

The X-Labs programme comes as the NSF – one of the main science funding agencies in the US – still lacks a director. The previous head, Sethuraman Panchanathan, resigned in April 2025 after receiving orders from the White house to cut the agency’s budget by more than 50% (US Congress later restored much of the funding).

The Trump administration has announced Jim O’Neill, a Silicon Valley investor, as the next director, but he has yet to go through the necessary Senate confirmation.

There is also no further movement on the new personnel that will make up the National Science Board, the body that acts at the NSF in a way similar to a company’s board. In April the US administration announced that it was terminating the positions of all 22-member NSB “effective immediately” without disclosing the reasons for the move.

“[That removal of the NSB] is quite without precedent,” adds Lane. “It seems to be an effort to simply eliminate the NSF.”

The post National Science Foundation’s X-Labs initiative draws fire as ‘terrible idea’ appeared first on Physics World.

This episode features Charlotte Deane, who is executive chair of the UK’s Engineering and Physical Sciences Research Council – or EPSRC.

In conversation with Physics World’s Matin Durrani, Deane talks about her career in both academia and industry – and her leadership of the University of Oxford’s Protein Informatics Group.

Deane explains EPSRC’s role in funding research in physics and other sciences in the UK. She talks about the long-term strategy behind changes in funding priorities that were announced earlier this year. She also explains how EPSRC is supporting students and highlights the importance of quantum technologies and artificial intelligence to the future of the UK.

The post Inside EPSRC: Charlotte Deane on funding the future of UK physics appeared first on Physics World.

The camera that checked JWST’s clock is losing its funding.

Southwest Research Institute (SwRI) and St. Mary’s University have embarked on a groundbreaking collaboration aimed at revolutionizing the future of hydrogen storage technology. This joint venture seeks to develop a comprehensive, physics-based forecasting tool capable of predicting the degradation and long-term durability of titanium-iron (TiFe)-based metal hydride vessels. Leveraging a chemical and thermo-mechanical modeling framework, the project represents a significant leap forward in tackling one of the most persistent challenges in hydrogen storage materials science. This initiative is made possible through a $125,839 grant from the St. Mary’s-SwRI Technology and Applied Research (S²TAR) Program, designed to foster impactful research collaborations.

Metal hydrides are pivotal materials in the hydrogen energy landscape, serving as one of the few safe and compact solid-state options for hydrogen storage. These materials function by chemically binding hydrogen to metal lattices through chemisorption, effectively locking hydrogen atoms within the structure. Unlike high-pressure gaseous tanks or cryogenic liquid hydrogen storage, metal hydrides offer improved safety profiles and reduce energy-intensive requirements. However, despite these advantages, their widespread application is hindered by their limited durability and performance degradation resulting from repeated hydrogen absorption and desorption cycles.

At the heart of this ambitious research endeavor is the intricate problem of metal hydride vessel degradation. Over numerous charge and discharge cycles, physical changes ensue within the alloy powders comprising the metal hydride bed. These changes include fracturing of particles, densification of the powder bed, and mechanical stresses that collectively impair hydrogen storage capacity and vessel performance. Traditional evaluation methods rely heavily on prolonged, costly experimental testing to assess long-term vessel integrity—a bottleneck that impedes innovation and commercialization.

The project team, headed by Dr. Richard S. Fu of SwRI and Dr. Mohamed Shaat of St. Mary’s University, seeks to transcend these limitations by integrating advanced physics-based simulations with targeted experimental validation. This dual approach aims to create a robust modeling framework capable of forecasting the lifecycle and operational durability of TiFe metal hydride vessels. The predictive tool will account for the coupled chemical, thermal, and mechanical phenomena driving hydrogen cycling performance over hundreds or even thousands of cycles.

Dr. Shaat is spearheading the development of an intricate, multiphysics computational framework at St. Mary’s University. This model is designed to encapsulate the complex interplay between hydrogen diffusion, chemisorption reactions, phase transformations within the metal hydride, heat generation and transfer, and the evolution of mechanical stress within the vessel. By accurately simulating these interconnected processes, the framework seeks to facilitate precise performance predictions, while also identifying design parameters and operational regimes that optimize both efficiency and vessel longevity.

Central to the team’s vision is the translation of fundamental physical and chemical principles of hydrogen interaction into computationally efficient predictive models. Dr. Shaat emphasizes the importance of capturing the coupling mechanisms—particularly how hydrogen transport influences thermal and mechanical responses and vice versa—in order to provide reliable simulations that replace and reduce the dependence on lengthy physical testing. This innovative approach promises to significantly reduce costs, accelerate development cycles, and improve hydrogen storage system designs.

On the experimental front, SwRI’s team, under Dr. Fu’s guidance, is undertaking controlled, long-term cycling experiments to collect essential validation data. By subjecting metal hydride vessels to realistic charge-discharge scenarios, they aim to quantitatively monitor performance degradation mechanisms as they unfold. These experiments will provide the empirical backbone necessary to calibrate and refine the modeling framework, ensuring that simulation outputs faithfully represent real-world behavior under operational conditions.

The synergy between modeling efforts and experiments forms the cornerstone of the project’s iterative design loop. As Dr. Fu explains, modeling insights will direct the focus of experimental tests to critical phenomena, while the resulting data will feedback to correct and enhance the models. This dynamic interplay is expected to unravel previously obscure degradation mechanisms by illuminating the coupled chemical, thermal, and mechanical interactions at work within the metal hydride vessels. Ultimately, this feedback-driven methodology will yield a predictive tool capable of guiding material improvements and engineering decisions.

Hydrogen’s emergence as a clean, versatile energy carrier is a key cornerstone of global efforts to decarbonize energy and transportation sectors. However, to fulfill its potential, advances in storage technology are imperative. Unlike batteries or fossil fuels, hydrogen storage demands novel materials and engineering solutions due to its unique physical and chemical characteristics. By focusing on metal hydride vessels, this project addresses a promising yet underdeveloped storage pathway that could unlock safer, more efficient hydrogen deployment across diverse applications.

The S²TAR funding mechanism plays an instrumental role in enabling this interdisciplinary collaboration by providing seed resources that draw on the expertise strengths of both SwRI and St. Mary’s University. This partnership is not only poised to produce high-impact scientific outcomes but also lays the foundation for sustained cooperation. Through this collaboration, the team is well-positioned to attract larger external funding sources from federal agencies and industry players focused on advancing hydrogen infrastructure and clean energy technology.

As work progresses, the team anticipates that their predictive modeling tool will be an invaluable resource for the hydrogen storage community. It will offer designers and researchers an evidence-based platform to evaluate new materials, optimize vessel designs, and predict operational lifetimes with higher confidence. By systematically addressing the core durability challenges of metal hydride storage, this project represents a wide-reaching advancement that could significantly accelerate solid-state hydrogen storage adoption worldwide.

In conclusion, this joint initiative by Southwest Research Institute and St. Mary’s University epitomizes the cutting edge of hydrogen storage research. Through combining rigor in experimental validation and sophistication in physics-based modeling, the project champions a future where hydrogen is stored more safely and efficiently. The knowledge generated here promises to not only rewrite the fundamentals of storage vessel degradation understanding but also to catalyze practical applications in the global hydrogen economy.

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Subject of Research: Physics-based modeling and experimental validation of TiFe-based metal hydride hydrogen storage vessel degradation and durability.

Article Title: Advancing Solid-State Hydrogen Storage: Predictive Modeling and Experimental Synergy for Metal Hydride Vessel Durability

News Publication Date: June 24, 2026

Web References: https://www.swri.org/markets/energy-environment/power-generation-utilities/advanced-power-systems/hydrogen-energy-research?&utm_medium=referral&utm_source=eurekalert!&utm_campaign=s2tar-metal-hydrides-pr

Image Credits: Southwest Research Institute

Keywords

Hydrogen storage, metal hydrides, TiFe alloys, chemisorption, physics-based modeling, thermo-mechanical framework, hydrogen diffusion, phase transformation, performance degradation, solid-state hydrogen storage, experimental validation, multiphysics simulations

Stockholm-based startup Fika Jobs is building a video-first hiring platform that combines AI interview agents with short-form video profiles, creating something that feels like a cross between LinkedIn and TikTok.

Terraxy, an innovative startup emerging from cutting-edge research at the King Abdullah University of Science and Technology (KAUST), has successfully secured $3 million in its Seed-2 funding round. This round was spearheaded by Wa’ed Ventures, the venture capital wing of Saudi Aramco, with additional support from KAUST itself. The investment aims to accelerate the scaling and commercialization of Terraxy’s groundbreaking soil regeneration and carbon storage technology, designed specifically to tackle the challenges posed by desert environments.

The capital injection follows a critical growth phase, facilitating Terraxy’s shift from pilot-scale initiatives toward full-scale industrial production. A flagship component of this expansion is the establishment of a 30,000-square-meter commercial facility located in Al Zulfi, Saudi Arabia. This state-of-the-art production hub symbolizes a major leap for the company in bringing its proprietary technology to market readiness, underpinning Wa’ed Ventures’ mission to translate locally developed, research-driven innovations into sustainable, practical solutions.

At the heart of Terraxy’s technology lies Carbosoil, a proprietary soil enhancer engineered to address the unique and challenging characteristics of sandy soils found across the Arabian Peninsula. Globally, soil degradation affects nearly a third of arable land, hindering agricultural productivity and ecosystem health. In Saudi Arabia, where sandy and nutrient-poor soils dominate, agricultural efforts are hampered by poor water retention and low nutrient availability. Carbosoil demonstrates a remarkable ability to improve these conditions, delivering up to a 70% increase in plant growth and yield using the same quantities of water and nutrients. This efficacy directly translates into enhanced resource-use efficiency, especially critical in arid regions where water scarcity is a major concern.

Integral to Terraxy’s success is the supportive regulatory landscape fostered by Saudi Arabia’s Ministry of Environment, Water and Agriculture (MEWA). Terraxy has benefited from MEWA’s Regulatory Sandbox, a pioneering initiative allowing emerging environmental technologies to be tested rigorously under real-world conditions. This framework not only accelerates the validation of novel technologies but also ensures alignment with stringent environmental standards and drives the responsible introduction of innovations to the market, supporting national sustainability targets.

The importance of soil health in the Kingdom cannot be overstated. It underpins food security, water efficiency, and land rehabilitation frameworks that are critical to Saudi Arabia’s ambitious environmental and economic agendas. Through collaboration between innovators, regulators, and investors, Terraxy exemplifies how multi-stakeholder engagement can foster the development of homegrown technologies that address both ecological and commercial imperatives.

Amidst escalating global efforts to combat land degradation and climate change, Terraxy’s dual-purpose technology stands out. It not only rehabilitates degraded soils but also captures and stores atmospheric carbon dioxide in a stable form that can endure for centuries. This long-term carbon sequestration capability complements regional and international commitments to emission reduction and climate resilience, providing a scalable solution adaptable to various arid and semi-arid environments.

Wa’ed Ventures CEO Anas Algahtani emphasized the strategic value of backing deep technology initiatives with tangible sustainability benefits. Highlighting Terraxy’s unique strength, he noted that the startup’s ability to transition from foundational science to deployable industrial applications underscores the potent role of science-led innovation. Such initiatives are vital to Saudi Arabia’s Vision 2030, which prioritizes sustainability, technological advancement, and economic diversification.

Aramco’s commitment to supporting solutions that address emissions from difficult-to-decarbonize sectors was also underlined by Ahmad O. Al-Khowaiter, Executive Vice President of Technology & Innovation at Aramco, and Chairman of Wa’ed Investment Committee. Terraxy’s technology fits squarely within this vision, exemplifying the kind of scalable, scientifically robust innovation required to achieve meaningful climate impact while fostering economic growth.

As a spinout from KAUST, Terraxy benefits from a robust ecosystem that bridges academia and industry. The National Transformation Institute (NTI) at KAUST has played a pivotal role in nurturing the company’s journey, offering infrastructure and translational support critical for scaling emerging technologies. Professor Himanshu Mishra, one of Terraxy’s co-founders and an associate professor at KAUST, highlighted how the broader ecosystem—rather than any singular breakthrough—was instrumental in Terraxy’s development.

Dr. Ian Campbell OBE, Senior Vice President at KAUST’s NTI, formally acknowledged the importance of NTI’s efforts in enabling Terraxy’s scale-up journey. He described Carbosoil as a cornerstone for soil enrichment initiatives and a tool that aligns with Saudi Arabia’s Green Initiative and expanding carbon credit market. Such alignment demonstrates how academia, government, and private sector investment can converge to yield innovations with direct and measurable impacts on national and global environmental priorities.

Substantial funding and institutional validation signal growing confidence in Terraxy’s technology. The company is poised to make a significant contribution to Saudi Arabia’s greening efforts, resource efficiency strategies, and carbon management policies. Its scalable commercial model offers a replicable path for other arid regions facing similar environmental challenges, positioning Terraxy as a potential global leader in sustainable soil regeneration and carbon sequestration.

The company’s trajectory also illustrates the power of university-driven innovation ecosystems in advancing high-tech environmental solutions. By translating fundamental research into market-ready products, Terraxy exemplifies how science and technology can be harnessed to create sustainable economic opportunities while addressing pressing environmental imperatives.

As Terraxy moves forward, its integrated approach to enhancing soil health and capturing carbon dioxide offers a compelling model for deep-tech interventions in the sustainability domain. With substantial backing and a proven technology platform, Terraxy’s advances could become a pivotal component in shaping sustainable land management and carbon reduction strategies, both within Saudi Arabia and internationally.

Subject of Research: People
Article Title: Terraxy Secures $3 Million to Pioneer Soil Regeneration and Carbon Storage Technology for Desert Environments
News Publication Date: Not provided
Web References: https://mediasvc.eurekalert.org/Api/v1/Multimedia/1ee8d30f-c323-416c-95ce-a86efb4d3d71/Rendition/low-res/Content/Public
Image Credits: Images © Terraxy / KAUST
Keywords: Soil Regeneration, Carbon Storage, Desert Agriculture, Deep Tech, KAUST, Terraxy, Carbosoil, Wa’ed Ventures, Aramco, Carbon Sequestration, Saudi Arabia, Sustainability, Environmental Innovation

Universities are receiving millions in taxpayers' money for research about asylum seekers stuffed with jargon like "postcolonial sexual identity" and "diasporic queers". Charlotte Gill has found 10 hair-raising examples.

The post British Taxpayers Have Been Charged £660 Million in the Last Five Years on Woke Research About Asylum Seekers appeared first on The Daily Sceptic.

Last August, the Trump administration issued an executive order intended to fundamentally alter how grant funding is handled by the US government. Under the system that had made the US a scientific superpower, peer reviewers rated the scientific quality and feasibility of grant applications, and subject-matter experts within the funding agencies used these ratings to determine which grants got funded. Under the proposed rules, political appointees would have the final say, and they were specifically instructed not to "routinely defer" to peer reviewers.

In the interim, the administration has lost many court cases because it turns out that issuing executive orders doesn't circumvent legal requirements, and the orders can be vacated if they lack strong justification. To avoid that same fate, the Office of Management and Budget (OMB) has decided to merge the executive order with other administration priorities and send it through the formal federal rulemaking process.

The result is a horror show for US science research. Not only is peer review made a secondary consideration, but the new rules would allow any federal agency to cancel any grant at any time based on the vague assertion that it isn't in the "national interest." The document would also ban any grants on a number of culture war topics, limit international collaborations, and block spending on things like publishing papers and attending conferences.

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Last week, the US government announced $2 billion in investments in quantum computing companies, allocating $100 million each to a range of startups in exchange for equity in the companies. Those could be make-or-break investments for many companies that are likely years away from a product that could see widespread use. But a member of the US Congress is now arguing that those deals are illegal, as Congress did not allocate the money for this purpose—instead, it was meant to support public research in semiconductors.

But the biggest chunk of money would go to a company that likely wouldn't exist if it weren't for the government's backing. Anderon will be set up with a billion dollars each from IBM and the government and will inherit personnel and IP from IBM. It will serve as a foundry for fabricating quantum processing units and will contract its services out to IBM and any other company that wants access to cutting-edge hardware.

Is any of this legal?

Zoe Lofgren (D–Calif.), the ranking member of the House Science, Space, and Technology Committee, made it clear that she is not happy with how the government is using its money to support this technology.

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