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CERN Physicists Discover Third and Final Member of Doubly Charmed Baryon Family

18 June 2026 at 19:13
An artist’s impression of the doubly charmed Ωcc⁺ baryon. Image credit: Daniel Dominguez / CERN.

Physicists with LHCb Collaboration at CERN’s Large Hadron Collider (LHC) have detected the elusive Ωcc⁺ baryon, a particle containing two charm quarks and one strange quark, completing a long-sought family of doubly charmed baryons first predicted over half a century ago.

The post CERN Physicists Discover Third and Final Member of Doubly Charmed Baryon Family appeared first on Sci.News: Breaking Science News.

The Clash of Sexual Civilisations

18 June 2026 at 19:00

With mass immigration we are witnessing a clash of sexual civilisations, says Bettina Arndt: two incompatible systems of rules about men, women and desire are colliding and the consequences are playing out in courtrooms.

The post The Clash of Sexual Civilisations appeared first on The Daily Sceptic.

Oxfordshire Seeks First Ban on Union Flags in Street

18 June 2026 at 17:26

Oxfordshire has become the first council to start a legal battle to ban residents from raising Union and St George flags on or near public highways due to the "distress" they cause.

The post Oxfordshire Seeks First Ban on Union Flags in Street appeared first on The Daily Sceptic.

Darkest Black Ever? New “Ultra-Black” Automotive Coating with Carbon Nanotubes Absorbs over 99% of Visible Light

18 June 2026 at 17:25


Scientists from Asia Pacific’s largest paint and coating manufacturer have developed a new “ultra-black” automotive coating using carbon nanotubes that absorbs over 99% of the light it receives, resulting in the darkest black of any currently available paint or coating.

The NIPSEA Group’s research team said its new ultra-black coating, which they describe as “deep, jet black,” meets stringent automotive standards, a critical requirement in markets like China, where trendy, luxury vehicles in the darkest colors are in high demand.

Carbon Nanotubes Absorb Light to Create Darkest Black “Ultra-Black” Coating

According to a statement announcing the new ultra-black coating, BMW first introduced a concept car in 2019 with a vertically aligned carbon nanotube (VACNT) array outer coating. Due to the unique material properties of carbon nanotubes, including the ability to bend or absorb light, the researchers said that its introduction “set off a race” among auto manufacturers to create a similar, ‘black hole’ effect with a pronounced dark appearance. 

“Automotive coating companies have been actively pursuing innovations in color technology to develop mass-processable ultra-black coating solutions with extreme blackness,” explained Zhiwei Liu, a research chemist with the company’s Color Technology Group, Core R&D, and an author on the study outlining the new coating.

The researchers note that ultra-black coatings are in unusually high demand in Asian countries, where having the darkest vehicle can represent a status symbol. has become a “key selling point” in China.

“Deep black finishes have long been the premium choice and signature color for luxury cars due to their elegant appearance, powerful visual impact, and luxurious undertone,” the researcher explained.

Although scientists have explored more practical ways to achieve the desired ultra-black effect, the new research once again leverages the unusual properties of carbon nanotubes to create an ultra-black coating that is darker than even the darkest commercially available alternative.

Creating a Stable Composite That Meets Automotive Standards

According to the team’s statement, they began by exploring methods to combine the benefits of carbon nanotubes with a black pigment that would serve as the coating’s color base. Critically, the team needed to create a nano-sized carbon black pigment-carbon nanotube composite that was also stable at a wide range of temperatures. and moisture conditions.

After exploring several formulations, Liu and colleagues succeeded in a stable nanotube-pigment composite. Next, the team incorporated the new carbon nanotube-based mixture into a coating binder and sprayed it onto a model car.

Because the new ultra-black coating uses structural absorption of light rather than the carbon black dispersion method used in current approaches, tests revealed an average absorption of 99.90% across all visible wavelengths. The team said its new coating also displayed “excellent long-term stability” during water and humidity tests.

Although the light absorption levels set a new standard for the darkest achievable automotive coating, Liu said advancements in dispersing technology and equipment leave his team “room for improvements.” The researcher highlighted potential advancements in “practical processability of carbon-nanotube-containing nanomaterials.”

Liu and colleagues also noted that increasing the proportion of carbon nanotubes in the material could further increase its light-absorbing capacity. However, they conceded, this approach “would also bring difficulties in industrial-grade processability.”

Future Improvements Include Even Darker Multi-Layer Options

When discussing potential future improvements, the team said scientists could fabricate multilayered ultra-black coatings. In theory, they note that this approach could result in a “gradient refractive index that reduces interface reflection and further enhances light absorption efficiency,” producing an even darker look than their single-layer version.

Although the ultra-black automotive coating is not yet commercially available, the team said they have already completed a “proof of concept” manufacturing design. Still, they conceded, given technical and regulatory challenges that remain, “it may still be a while before ultra-black cars made with this film will be able to hit the road.”

“Further efforts will focus on the verification of coating application window and the comprehensive film performance validations of carbon black pigment-carbon nanotube composite-based ultra-black automotive coating,” Liu concluded.

The study “Robust ultra-black automotive coating with structural absorption and high absorption efficiency based on waterborne carbon black/CNT composite” was published in Matter & Light.

Christopher Plain is a Science Fiction and Fantasy novelist and Head Science Writer at The Debrief. Follow and connect with him on X, learn about his books at plainfiction.com, or email him directly at christopher@thedebrief.org.

Tesla teases new FSD features — but it’s still not the self-driving promised

18 June 2026 at 17:08

Elon Musk says Tesla’s Full Self-Driving will soon remember your parking preferences and let you talk to it through Grok, like giving directions to an Uber driver.

The features sound useful, and they reflect how genuinely impressive FSD has become — but they also underscore that it remains a supervised driver-assist system, not the unsupervised self-driving Tesla has sold to owners for years.

Grok Goes to War: Pentagon Reveals Musk’s AI Chatbot Launched Missiles in U.S. War with Iran

18 June 2026 at 15:54


Pentagon Grok AI
(Image Credit: Sgt. Trent Henry/U.S. Marine Corps)

Welcome to this week’s installment of The Intelligence Brief… in a recent sworn statement, it was revealed that the Pentagon has reportedly leveraged Elon Musk’s xAI to assist in the launch of as many as 2,000 munitions in the recent U.S. war with Iran. In our coverage, we’ll be looking at 1) how the recent revelations were brought to light in a lawsuit focused on possible violations of the Clean Air Act, 2) how a “frontier” AI chatbot became key part of the Pentagon’s military efforts, and 3) why lawmakers are sounding alarms over the potential misuse of AI systems, and the need for ensuring their safe use while restricting major decisions to human operators.

Quote of the Week

“We must act now—not to stifle technological progress, but to establish clear rules of the road that keep humans in charge and keep AI’s use in warfare smart and safe.”

– U.S. Senator Kirsten Gillibrand

If you enjoy the news and perspectives offered by The Debrief, make sure that you aren’t missing our stories by making us one of your “preferred sources” on Google News. You can simply follow this link to add The Debrief to your list of favorites, and you can read more about Google’s preferred sources in our article here.


RECENT NEWS from The Debrief


Musk’s AI Chatbot Helped U.S. Forces Fire Missiles

This week, as an initial deal aiming to end the U.S. war with Iran comes to fruition, it was revealed that thousands of missiles launched by the U.S. were fired by Elon Musk’s Grok chatbot.

The revelation emerged as part of a sworn statement pushing to protect the military’s use of Musk’s AI systems that could be impacted by a lawsuit, which alleges his xAI data centers are contributing to illegal pollution in black communities.

The statement, made by Cameron Stanley, the Pentagon’s chief digital and artificial intelligence officer, states that Musk’s AI chatbot helped to facilitate the deployment of “over 2,000 munitions to 2,000 distinct targets within 96 hours during Operation Epic Fury,” which Stanley called “a testament to the greatly increased operational efficiency made possible by the Grok Gov Model.”

A “Frontier” AI Chatbot

In Stanley’s sworn statement this week, the Pentagon official tasked with overseeing the Department of War’s use of AI wrote that xAI’s Grok is one of just four proprietary AI models “capable of supporting national security applications.”

Stanley wrote that xAI also “remains one of just three enterprise providers equipped to sustain mission-critical operations across Secret and Top-Secret classified networks for the foreseeable future due to the enormous resources required for initial certification.”

“DoW currently relies on derivatives of xAl’s commercial offerings known as the Grok Gov Model,” according to Stanley, who goes on to note in his statement that the AI chatbot has been deployed in systems that include Maven Smart Systems, where it assists in supporting “vital national security missions, including targeting, intelligence, readiness, and recruitment,” and also aids in a range of other military tasks.

“The Grok Gov Model offers features unique to xAI that are found in no other frontier Al model,” Stanley wrote. As an illustration of its capability, Stanley then made the chilling revelation of just how involved in military activities the xAI chatbot has recently become.

Grok Goes to War

“To further illustrate the uses of the Grok Gov Model within DoW, MSS frontier workflows enabled U.S. forces to deploy over 2,000 munitions to 2,000 distinct targets within 96 hours during Operation Epic Fury, a testament to the greatly increased operational efficiency made possible by the Grok Gov Model,” Stanley wrote in his testimony.

As reported by The Independent, the sworn statement provided by Stanley appears to represent the first confirmation by an official within the Trump Administration that Elon Musk’s AI is being used to control U.S. weapons used against Iran.

Since the conflict began in February, the Trump administration has faced scrutiny over U.S.-led attacks that have resulted in civilian deaths, with mounting questions over the military’s use of AI during the conflict.

In an analysis by the Lieber Institute at West Point, Jessica Dorsey and Luke Moffett noted that AI systems “are frequently framed as ushering in an era of unprecedented precision and efficiency in warfare,” but in reality, issues that include recent figures involving as many as 1,700 civilian deaths as of May 2026 “calls that narrative into serious question.”

“CENTCOM claimed it was generating 1,000 targets per hour,” Moffett and Dorsey wrote, adding that while “such capabilities are often framed as enhancing precision… they also introduce new layers of abstraction between decision-makers and the consequences of their actions.”

Pending Court Rulings Could Impact the Pentagon’s AI Use

The U.S. Department of Justice has argued that a pending court ruling could significantly impact the Pentagon’s use of AI if it is prevented from deploying xAI across its systems.

In an effort to prevent such setbacks, the Trump administration has requested that a lawsuit launched by the NAACP be dismissed by a Mississippi-based federal judge. The lawsuit claims that Musk’s xAI Colossus 2 data center, which relies on several dozen gas-powered turbines, is operating in violation of the Clean Air Act. Presently, the turbines are being operated without permits, the lawsuit asserts.

In his sworn statement this week, Stanley called Musk’s xAI systems a “long-term strategic tool vital to maintaining our technological advantage against adversaries.”

However, opponents of such measures in Washington argue that new regulations must help to ensure that crucial military decisions—especially those which impact human lives—must also be made by humans.

“The most critical decisions affecting our national security and the lives of our service members must always be made by human beings, not unaccountable machines,” wrote U.S. Senator Kirsten Gillibrand (D, NY) in a statement earlier in June.

Gillibrand also recently introduced a bill that aims to restrict military decisions that could potentially impact human lives to human operators, and to implement a ban on AI in governing the use of nuclear weapons, as well as autonomous weapons capabilities and domestic surveillance.

In her statement this month, Gillibrand argued that the Pentagon “is moving toward deploying incredibly powerful AI technology without commonsense guardrails in place, which could have catastrophic consequences that make all of us less safe.”

“We must act now—not to stifle technological progress, but to establish clear rules of the road that keep humans in charge and keep AI’s use in warfare smart and safe,” Gillibrand added.

That concludes this week’s installment of The Intelligence Brief. You can read past editions of our newsletter at our website, or if you found this installment online, don’t forget to subscribe and get future email editions from us here. Also, if you have a tip or other information you’d like to send along directly to me, you can email me at micah [@] thedebrief [dot] org, or reach me on X: @MicahHanks.

Here are the top stories we’re covering right now…

Even Moderate Alcohol Drinking May Raise Pancreatic Cancer Risk

18 June 2026 at 12:29

For many people, having a glass of wine with dinner or a beer with friends feels like a normal part of life. Alcohol is often linked to celebrations, relaxation, and social events. However, scientists have been uncovering a growing number of health risks associated with drinking. For years, research has shown that alcohol can increase […]

The post Even Moderate Alcohol Drinking May Raise Pancreatic Cancer Risk appeared first on Knowridge Science Report.

VPN sans abonnement : existe-t-il des solutions fiables sans engagement ?

18 June 2026 at 11:30
Payer un abonnement tous les mois pour utiliser un VPN n’attire pas forcément tout le monde. Beaucoup d’utilisateurs cherchent aujourd’hui une solution plus souple. Une offre gratuite, un plan sans engagement ou une version limitée peuvent suffire pour protéger ses données sur internet, regarder...

Asteroid Day : CyberGhost chiffre les connexions des passionnés d’espace entre conférences, forums et ressources en ligne

18 June 2026 at 07:30
L’Asteroid Day rassemble chaque année chercheurs, passionnés d’astronomie et curieux autour des enjeux liés aux objets célestes. Mais l’événement dépasse désormais largement les conférences physiques : une grande partie des échanges se déroule en ligne, entre retransmissions, forums spécialisés...

Liquid Metal Microcoils Revolutionize Endoscopic Haptics

17 June 2026 at 21:24

In a remarkable leap forward for medical technology, a team of researchers led by Zou, X., Zhang, J., and Chan, C.P.Y. have unveiled a groundbreaking advancement in haptic feedback systems designed specifically for endoscopic teleoperation and remote palpation. Detailed in their recent publication in npj Flexible Electronics, this innovative approach employs dense elastomeric liquid metal microcoil-based interfaces to transform how surgeons and medical professionals interact with remote internal environments. The intersection of flexible electronics, smart materials, and precision control opens new vistas for minimally invasive procedures and telemedicine.

At the heart of this breakthrough lies the integration of liquid metal microcoils encapsulated within elastomeric substrates, forming a highly sensitive yet mechanically robust haptic interface. These microcoils are capable of generating precise electromagnetic fields which can be finely tuned to mimic various tactile sensations encountered during palpation of organic tissues. The elastomeric medium ensures that the device remains soft and compliant, paralleling the flexibility of biological tissues, a critical characteristic for interfacing with delicate anatomical structures during endoscopic maneuvers.

Traditionally, the lack of tactile feedback in endoscopic teleoperation has been a significant barrier limiting the surgeon’s ability to perform nuanced examinations and manipulations remotely. Without real-time haptic cues, operators must rely heavily on visual data, often constraining them to less precise interventions. The dense microcoil architecture introduced here circumvents this limitation, delivering graded force feedback that enhances situational awareness and operational dexterity. This certainly augurs well for improved patient outcomes and expanded applicability of robotic-assisted minimally invasive surgeries.

The engineering challenge of embedding electrically conductive liquid metals within stretchable matrices is particularly formidable due to factors such as metal leakage, durability under repeated mechanical deformation, and signal fidelity. By leveraging advanced microfabrication techniques, the research team has managed to arrange multiple liquid metal microcoils in closely packed networks, maintaining electrical continuity while allowing for substantial skin-like elasticity. The resulting elastomeric platform simultaneously exhibits excellent mechanical endurance and electromagnetic responsiveness, making it highly suitable for continuous use in clinical settings.

Further advancing the technology, the microcoils’ electromagnetic emissions can be dynamically modulated to emulate various textures and firmness levels characteristic of different tissue types. Thus, the interface can replicate sensations ranging from firm nodules to soft cystic formations, invaluable during diagnostic remote palpation. This capacity to differentiate subtle differences in tissue compliance could revolutionize tele-diagnostic methodologies and enable the virtual presence of expert clinicians regardless of their physical location.

Additionally, the researchers demonstrated that the compactness and biocompatibility of their design allow seamless integration with existing endoscopic instruments. Since these haptic interfaces are fabricated on flexible substrates that conform to complex geometries, retrofitting current devices for enhanced tactile perception becomes feasible without significant hardware overhaul. This compatibility introduces a pragmatic pathway for rapid clinical adoption and accelerates the translation from lab prototype to bedside tool.

Significantly, the device’s exceptional spatial resolution stems from the microcoil density that surpasses conventional haptic arrays by an order of magnitude. This density enables highly localized force feedback, empowering surgeons to discern minute anatomical features and manipulative pressures, akin to natural touch. Enhanced spatial acuity not only minimizes inadvertent tissue damage but also refines the precision of surgical gestures performed remotely, a vital enhancement for robotic endoscopy.

The durability tests conducted reveal that the elastomeric microcoil arrays withstand thousands of mechanical cycles without degradation in electrical or tactile function. This endurance is crucial for clinical reliability, as surgical procedures often extend over hours and necessitate consistent tactile feedback. The elastomer’s resistance to bodily fluids and sterilization processes further underscores its practicality for repeated use within sterile operating room environments.

Beyond endoscopy, the principles underpinning this technology have vast implications across medical robotics and wearable health devices. From remote rehabilitation to advanced prosthetics, densely packed liquid metal microcoil arrays embedded in soft elastomers could deliver highly intuitive haptic sensations that bridge the gap between man and machine. Their ability to accurately simulate touch and force presents a paradigm shift in direct human-machine interaction technologies.

Expanding the scope of teleoperation, this innovation paves the way for real-time remote palpation performed by specialists thousands of miles away. The combination of high-fidelity haptic feedback with tactile sensation mapping can enable remote diagnosis with unprecedented accuracy. This is particularly transformative for geographically isolated healthcare facilities, where access to expert practitioners is limited, enhancing healthcare equity on a global scale.

Further insights from the study highlight that the electromagnetic microcoils can operate efficiently with low power consumption, vital for portable and battery-operated surgical tools. Efficient energy usage not only extends operational time but reduces heat generation, an important factor in preserving tissue safety and user comfort. The smart material approach balances functionality with operational pragmatism, addressing key limitations in current haptic technologies.

From a materials science perspective, the marriage of liquid metal and elastomer illustrates a masterclass in multifunctional composite design. The liquid metal component, inherently conductive and deformable, harmonizes with the elastomer’s resilience to achieve electro-mechanical transduction without compromising softness. This synergy redefines the possibilities of flexible electronics by providing a multi-physics platform capable of sensing, actuating, and adapting simultaneously.

Another notable aspect lies in the scalability of the fabrication method. This enables mass production of the microcoil arrays with reproducible quality and design flexibility tailored to varied endoscopic devices. Scalability is essential for widespread clinical deployment and cost-effectiveness. By providing a reliable route for industrial manufacturing, the researchers have addressed one of the critical barriers to translating cutting-edge soft electronics into real-world medical accessories.

In conclusion, Zou et al.’s pioneering contribution in developing dense elastomeric liquid metal microcoil-based haptic interfaces represents a landmark achievement with far-reaching consequences for telemedicine and minimally invasive surgery. Their meticulous integration of fluid mechanics, materials engineering, and electromagnetic control offers a new standard for tactile interaction in remote medical procedures. This breakthrough invigorates the field of flexible electronics and sets a blueprint for next-generation human-machine interfaces enhancing surgical precision and patient care worldwide.

As the medical community faces the continuing challenge of providing expert care in increasingly complex and constrained environments, innovations such as these provide a beacon for safely extending human touch beyond physical boundaries. Dense elastomeric liquid metal microcoil haptics are poised to redefine surgical telepresence, promising a future where distance no longer limits the healing power of human touch.


Subject of Research: Dense elastomeric liquid metal microcoil-based haptic interfaces for improving tactile feedback in endoscopic teleoperation and remote palpation.

Article Title: Dense elastomeric liquid metal microcoil-based haptic interfaces for endoscopic teleoperation and remote palpation.

Article References:
Zou, X., Zhang, J., Chan, C.P.Y. et al. Dense elastomeric liquid metal microcoil-based haptic interfaces for endoscopic teleoperation and remote palpation. npj Flex Electron (2026). https://doi.org/10.1038/s41528-026-00608-7

Image Credits: AI Generated

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