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Monday, June 01, 2026

DRONES

Catching the unknown: The drone designed to hunt other drones

A captured drone, 28/05/2026
Copyright Johanna Urbancik/ Euronews

By Johanna Urbancik
Published on


After repeated drone sightings at airports and critical infrastructure sites, a German company believes it has found a way to identify who is behind them.

A suspected drone sighting brought disruption to Munich airport on Saturday morning, with around 26 flights reportedly diverted and further delays affecting departures. It's the latest in a growing number of drone incidents at German airports.

Figures from Germany's air navigation service, Deutsche Flugsicherung (DFS), show that 37 drone sightings were recorded in the first three months of this year alone. Yet one question often goes unanswered: who was flying them?

In most cases, investigators are unable to determine whether a drone was being operated by a hobbyist, an irresponsible pilot or someone with more hostile intentions.

Without recovering the aircraft or identifying its operator, establishing where it came from is often impossible.

The answer? A drone 'hunter'

One German company believes it has found a way to solve the problem. Working alongside US radar manufacturer Echodyne, Argus Interception has developed a system designed to hunt down rogue drones and catch them in mid-air.

Rather than shooting a target down, the company's A1-Falke interceptor fires a net intended to bring the aircraft safely to the ground. The idea is not only to avoid debris falling onto people or property below, but also to recover the drone intact so it can later be examined by investigators.

The drone capture, 28/05/2026 Johanna Urbancik/ Euronews

To improve the chances of a successful interception, the drone carries two net payloads, allowing operators a second attempt if the first misses.

At an exclusive demonstration attended by Euronews and a small group of journalists near Hamburg, the companies put the system to the test. A target drone was launched across a training ground before the A1-Falke was sent in pursuit. Moments later came a loud bang. Seconds after that, the target was caught in the interceptor's net.

Sven Steingräber, co-founder of Argus Interception, says the system was designed for situations where shooting a drone down is not an option, such as near airports, critical infrastructure or in densely populated urban areas.

"We set out to address a capability gap," he said. The aim, he argues, is to respond to drone incursions proportionately while avoiding collateral damage. "Our net system allows us to capture the drone, transport it away and place it exactly where we want it," Steingräber added. "That way, we can avoid harm to bystanders as well as damage to property."

In built-up, urban areas, he argued, that distinction matters.

Steingräber and Frankenberg at the Argus Interception factory Johanna Urbancik/ Euronews


How does the system work?

In simple terms, Echodyne provides the eyes, while Argus provides the interceptor.

The two companies play different roles within the same system. While Echodyne's radars monitor the airspace and detect suspicious aircraft, Argus' A1-Falke is responsible for the interception itself.

"You saw a couple of different radar systems on the ground," Echodyne chief executive Eben Frankenberg told Euronews. The larger system, known as EchoShield, is responsible for "detecting an initial drone flying into the area" before "tracking it with very high fidelity and sending that data to the command and control centre."

A smaller radar, EchoGuard, performs the same role, but at shorter ranges. Once a target has been identified, its position is passed to the interceptor. The A1-Falke then takes over. Mounted on the drone itself is a radar called EchoFlight, which performs what Frankenberg describes as "air-to-air tracking."

Echodyne CEO Eben Frankenberg next to a radar system. Johanna Urbancik/ Euronews


"So once the interceptor drone is in the air, then it's going to go find the intruder drone and then start tracking it," he said. "And so the interceptor drone can then follow it," Frankenberg said.

The A1-Falke is then sent in pursuit. Designed to catch rather than destroy its target, the drone fires a net intended to entangle the aircraft and bring it safely to the ground.

To increase the chances of a successful interception, it carries two net payloads, allowing operators a second attempt if the first misses. The drone itself is piloted from the ground. While artificial intelligence assists with the operation, the final decisions remain in human hands.

A growing security concern

Steingräber argued that many people still underestimate the potential threat posed by drones flying over sensitive sites. "Modern wars often don't begin with the first shot being fired, but with the gathering of information," he told Euronews. Many people, he said, are unaware that intelligence collected by a drone today could have significant consequences at a later stage.

"Such drone flights over critical infrastructure can have major consequences," Steingräber said. "Operational procedures are filmed, supply routes are mapped and critical points are assessed for an adversary, allowing them to strike more effectively because they already have the information."

Reports of drones flying over critical infrastructure, airports and military sites in Germany have become more frequent since Russia's full-scale invasion of Ukraine. Until recently, responsibility for dealing with such incidents rested largely with the police. The German army was generally limited to responding to drone activity over its own facilities.

Radar and drone, near Hamburg, 28/05/2026 Johanna Urbancik/ Euronews


That changed last year when Germany amended its Aviation Security Act. While primary responsibility still lies with the police, the armed forces can now provide support if requested by state authorities and if the available civilian resources are deemed insufficient.

Some in the industry argue that the current framework leaves operators of critical infrastructure with few tools to respond to suspicious drone activity. They are calling for facilities such as airports, energy sites and other sensitive locations to be given greater scope to use counter-drone systems themselves.

One example is the net-based interceptor demonstrated to Euronews near Hamburg, which is designed to capture a drone rather than destroy it. As it carries no live ammunition and is not classified as a weapon, operators could deploy the drone themselves, bring an intruding aircraft down and have it examined afterwards.


‘Much better defence’ required to avert Russian drones, former Romanian NATO official tells Euronews


Euronews

By Méabh Mc Mahon & Angela Skujins
Published on

Exclusive: Former NATO Deputy Secretary-General Mircea Geoană has warned that the military alliance needed stronger low-altitude military capabilities to shoot down drones, as seen with the incursion late last week in Romania that has left the country in "shock".

Former North Atlantic Treaty Organisation (NATO) Deputy Secretary General, Mircea Geoană, said that much better defences were required by Europe to ward off drones – and the Romanian city of Galați still lives in a state of "shock" following an incursion by a Russian drone carrying explosives on Friday.

Late last week an unmanned aerial vehicle crashed into a residential building in the Romanian south-eastern port city near the border of Ukraine, sparking a fire and injuring two people.

The Romanian government blamed Moscow for the incident and declared the Russian consul in Constanța a persona non grata while closing the consulate.

In recent weeks, several drones have entered European airspace, causing concern across the Baltics. However, this is the first incident in which Romanians have been injured.

“The shock of the Russian incursion and explosion on a block of apartments in Galați is still here with us,” Geoană said in comments to Euronews’ Europe Today programme on Monday.

“Galați is a big city, an industrial city on the Danube. On the other side of the river, there is Ukraine, and Russia is constantly attacking infrastructure on the Ukrainian side,” he said.

Russian President Vladimir Putin has rejected blame for the drone crash, while the country's deputy chair of Russia's Security Council, Dmitry Medvedev inferred more drones would continue to stray into European skies. "The peaceful sleep is over," he said.

“Concern” within Bucharest had cumulated over more than four years of Russia’s full-scale invasion of Ukraine due to the country’s proximity to the battlefield, said Geoană, who served within NATO's upper echelons between 2019 and 2024. He also served as Romanian Foreign Minister from 2000 to 2004.

A Romanian fighter jet of NATO's Baltic Air Policing Mission successfully shot down a stray drone that entered Estonia’s airspace on 19 May. Asked why this did not occur in Romania on Friday, Geoană said the military did not “have enough time or space to shoot”.

Romania’s Ministry of Defence did scramble two F-16 fighter jets to respond to the aircraft, however Romania’s General Gheorghe Maxim said the forces had insufficient time – only four minutes – to shoot it down.

The incident has further underlined the need for NATO to better equip itself against the form of modern warfare that occurs in low-altitude, Geoană said.

“We have to do a much better effort to try to find the right kind of air and missile defence for NATO in general,” he explained.

“For mid-altitude and high altitude, let's say there are some things in place: Patriot missiles, F-16 things, F-35 NATO operations."

“For this basically low altitude things… you can acquire them, the only thing is that you have to put your right priorities in the right place.”


Russia fired record 8,150 drones at Ukraine

in May: AFP analysis

Kyiv (Ukraine) (AFP) – Russia fired a record number of long-range drones at Ukraine in May, an AFP analysis of Ukrainian air force data showed Monday, as Kyiv appealled to allies for air defence support.



Issued on: 01/06/2026 - RFI

A Russian drone flies above Kyiv during an attack on May 24 © Genya SAVILOV / AFP


Russia launched 8,150 long-range drones in May, according to a compilation of daily air force reports, up to 24 percent on the number fired in April.

Kyiv has developed a robust network of air defence systems across the country that is capable of downing most drones, but it still relies on Western allies to down Russian missiles.

The new record barrage comes after a three-day truce last month raised hopes for broader peace efforts but Kyiv and Moscow accused each other of violations and stepped up their long-range attacks.

Russia also fired 211 missiles in May, among the highest monthly figures, at a time when Kyiv called on the United States for urgent help with supplies of ammunition for its Patriot anti-missile systems.

Russia lauched one of its worst attacks on the capital in months in May, when a missile slammed into a residential building, as part of a barrage that killed two dozen people.

Moscow last month also deployed its nuclear-capable ballistic missile -- dubbed Oreshnik -- for only the third time of the invasion.

Kyiv intercepted about 91 percent of all incoming drones and missiles in May, according to air force data.
One Russian drone attack in May partially destroyed this Kyiv apartment block © Roman PILIPEY / AFP


That points to how Ukraine has pioneered systems to intercept long-range drones but remains heavily reliant on Western allies to counter missiles.

Ukrainian officials have repeatedly warned that stocks of anti-missile systems and ammunition are running low.

President Volodymyr Zelensky appealed directly to US President Donald Trump last month for help downing Russian missiles.

The deficits have been exacerbated by the war in the Middle East, which saw US allies expend huge quantities of air defence ammunition protecting sites in the Gulf.

Trump re-entered the White House last year vowing to quickly end the Ukraine war, but talks stalled as the Moscow and Kyiv remain at odds over Russia's territorial demands.

Diplomatic efforts further derailed after Washington's attention turned to the US-Israeli war on Iran that erupted on February 28.

© 2026 AFP

Ukraine: How a kamikaze drone partially operated by AI is attacking Russian convoys

Drones piloted by artificial intelligence are now being deployed on the Ukrainian front lines, and while there has been much talk about them, there is still much that remains unknown. The US-made Hornet Drone, which is partially guided by AI, is at the centre of a new Ukrainian strategy to target Russian logistics.



Issued on: 01/06/2026 
By:The FRANCE 24 Observers/Guillaume MAURICE

This video, shared online by the Azov Brigade of the National Guard of Ukraine on April 16, 2026, shows a Russian truck being hit by a Ukrainian Hornet drone that’s piloted by AI. A red square marks the drone’s potential target. © X / azov_media

For the past few months, a drone has been prowling Russian logistics routes. The Hornet, which the Russians call the "Martian-2", is a mid-range kamikaze drone partially piloted by artificial intelligence.

The drone – which is built of polystyrene, has a 2-metre wingspan and a range of more than 100 km – costs $6,000 USD. It can hit a target at a speed of 200 km/h and can carry a 4.5kg payload. After the drone is launched using a catapult, it flies using an electric propeller motor, which means that it is nearly silent, according to Russian sources. It is piloted using two cameras.

The US-designed Hornet was developed by the American company Perennial Autonomy, which was founded and financed by former Google CEO, Eric Schmidt. This drone is frequently used in US Army training exercises. However, in July 2025, Perennial Autonomy – then called Swift Beat – made a deal to supply Ukraine with drones. Ukrainian President Volodymyr Zelensky announced on May 5 that Ukraine had quadrupled its number of mid-range strikes, meaning those beyond 20 kilometres, between February and April 2026.

This shows a Hornet drone on its launcher. © US Army


Once the drone is in Russian-occupied territory, it can apparently pilot itself using artificial intelligence, a system that makes it less vulnerable to Russian signal jamming.


The drone is said to be able to automatically identify its targets before striking. It is, however, very difficult to know the precise role played by artificial intelligence in the decision taken to strike. Our team contacted Perennial Autonomy, who did not want to comment on the drone’s piloting system. The Ukrainian Army did not respond to our questions.

Elite Ukrainian units like the Azov and Khartia Brigades have been posting images of Hornet drones striking Russian supply convoys. On his Telegram channel, Russian military blogger Alexander Kharchenko admitted that Russian “logistics is seriously disrupted”. He said that the Hornet is allowing Ukrainians to strike at an unprecedented distance: “Until recently, the guys were easily carrying out patrols 50 kilometres from the frontlines. But now, this area is under fire by the Hornets.”
‘The drone approaches its target silently, we don’t have time to react’

In video after video, the same scene repeats over and over. The drone flies over the area, spots a Russian truck or another piece of equipment and marks its target with a red square. Then, it hurtles toward its target to detonate.


This video shows a Russian truck being targeted by a Hornet flown by the Azov brigade. © X / azov_media


On Telegram, another Russian military blogger described how Hornet drones work: “In most cases, the drone flies at a low altitude (around 200 m) all along our roads. It identifies its target and attacks. The drone approaches its target silently, most of the time, we don’t have time to react.”

This video, posted on April 16, 2026 by the Azov Brigade of the National Guard of Ukraine shows eight successive strikes on Russian equipment. X / azov_media
A drone striking behind the lines

On May 8, the Azov Brigade deployed a Hornet drone in the Ukrainian city of Mariupol, which is occupied by the Russians. They flew over the edges of the city, which is more than 100 kilometres from any Ukrainian positions.



This video, published by the Azov Brigade on May 9, 2026, shows a Hornet drone flying over the occupied city of Mariupol, which is more than 100 km from Ukrainian positions. X / azov_media

This shows a Hornet drone deployed by the Azov Brigade of the National Guard of Ukraine flying over the gates of the city of Mariupol, which is occupied by Russian troops. Location: 47°13'21.08"N 47°13'21.08"N © X / azov_media


It’s not the first time that a Hornet has flown so far: according to an analysis by the FRANCE 24 Observers, out of 13 videos of drone strikes posted online by different Ukrainian units, nine of them took place more than 80 kilometres from the front line.

George Barros, director of innovation at the Institute for the Study of War, says that the Hornet is partially guided using artificial intelligence:


"Once the Hornet enters Russian territory, its partial AI guidance allows it to independently select its target. Even without a connection to the pilot, the drone can recognise a Russian truck or armoured vehicle. This makes it resistant to jamming, since it no longer depends entirely on the signal used by the pilot to guide it.

The Hornet is also capable of flying autonomously during the final meters of the attack thanks to artificial intelligence. This is particularly useful because some Russian vehicles are equipped with jammers. However, the precise role of AI in the drone’s operation remains unclear.“

According to the researcher, this system enables the drone to strike far behind Russian lines, most notably in the Mariupol region:


“Mariupol is a major logistical hub, with numerous highways connecting southern Ukraine to the Donetsk region. Large numbers of troops and significant quantities of ammunition transit through this area.

Using small FPV-type kamikaze drones, the Ukrainians were already able to strike Russian positions located up to 30 kilometres from the front line. With missiles and long-range drones, they can hit Russian refineries hundreds — even thousands — of kilometres away.

But there is an operational gap between 30 km and 120 km that allows the Russians to deploy their logistics and prepare their assaults. It is within this space, referred to as the ‘intermediate depth,’ that the Ukrainians are trying to operate.”
When a Russian organisation is able to study the drone

Russian Telegram channel Ghost_Malleus_Maleficarum, which specialises in the technical analysis of Ukrainian drones, reported that the Hornet has a “success rate above 80%”. Meaning that volunteers from the Coordination Centre for Assistance to Novorossiya (KCPN), an organisation that trains Russian soldiers in operating drones, were thrilled to get their hands on a downed drone that they could study. Volunteers from this organisation wrote a 100-page report on the components of a Hornet drone.
In their report, KCPN analyses the components that make up Hornet drones in great detail. 
© kcpn.info


The document describes the drone’s ability to use artificial intelligence and mentions that they contain Qualcomm processors, a unit capable of processing data from several cameras present on the engine using artificial intelligence.

Russian military blogger UAVDEV reported that the signal enabling a pilot to remotely control the drone is hidden amongst civilian wifi traffic, which enables it to circumnavigate Russian electronic war systems that don’t jam non-military wifi.

These photos, taken by Russians, show the antennas in the drone’s wings. 
© kcpn.info


Russian military bloggers admit that the drone detectors currently used by the Russian army have blind spots that include the radio frequencies used by the Hornet. KCPN reported that the Ukrainians obtained and analysed Russian detectors, enabling them to adapt this new wave of Ukrainian drones. The report castigates the designers of the Russian jammers, who aren’t admitting their failures to stop Ukrainian drones.

But Barros says that electronic warfare alone is not sufficient to counter the threat of drones.

“Jammers cannot be 100% effective against drones. They can only operate on limited frequencies — it is impossible to jam every frequency at once. A jammer can only disrupt signals within a limited geographical area determined by its range, so choices have to be made. These systems also cannot operate continuously around the clock because they need to be recharged.

There is no miracle solution. The Russians will have to adapt the entirety of their logistics and supply train if they want to protect the rear."

This article has been translated from the original in French by Brenna Daldorph.



Friday, May 29, 2026

NASA is developing a ‘self-thinking’ spacecraft


By Dr. Tim Sandle
DIGITAL JOURNAL
May 28, 2026


NASA's Orion spacecraft en route for the Moon, with the Earth in the background, in a photo released by NASA in November 2022 - Copyright AFP YAMIL LAGE

NASA is testing a next-generation space computer chip that could give spacecraft the ability to operate far more independently in deep space. The radiation-hardened processor is showing performance levels hundreds of times beyond current spaceflight computers while surviving punishing tests designed to mimic the harsh conditions of space.

The technology could enable AI-powered spacecraft, faster scientific discoveries, and smarter missions to the Moon and Mars.

Future space missions—whether probing distant planets or supporting astronauts on Mars—will depend not only on rockets and instruments, but on something less visible: onboard computing power. NASA is now working to transform this capability through its High Performance Spaceflight Computing project, an initiative aimed at delivering a new generation of radiation-resistant processors for space exploration.
Need for independent decision making

For decades, spacecraft have relied on comparatively outdated computer chips. These processors are not chosen for speed, but for resilience. In the harsh environment of space—where radiation, extreme temperature swings and high-energy particles are routine—modern consumer-grade electronics would quickly fail. Legacy space processors, though slow, have proven durable enough to survive years, even decades, beyond Earth.

However, the limitations are becoming increasingly evident. As missions grow more ambitious, the demand for real-time data processing, autonomous navigation and advanced scientific analysis has intensified. Future spacecraft will need to make decisions independently, especially in deep space where communication delays with Earth can stretch to minutes or hours.

At the centre of NASA’s effort is a new radiation-hardened system-on-a-chip (SoC), designed to deliver a step-change in capability. Engineers anticipate up to 100 times the performance of current spaceflight processors, with early testing suggesting even higher gains under certain conditions. Unlike traditional single-purpose systems, this compact chip integrates multiple computing cores, networking functions and memory systems into one unit.


Radiation is one of the most serious threats to spacecraft electronics because, unlike on Earth, there is little natural shielding in space. High-energy particles from the Sun (solar radiation), Earth’s radiation belts, and deep space (cosmic rays) can directly interfere with electronic systems in several ways.

“This new multicore system is fault-tolerant, flexible, and extremely high-performing,” explains Eugene Schwanbeck of NASA’s Langley Research Center. The emphasis on fault tolerance is critical: in space, even a minor computational error—caused by a stray high-energy particle—can disrupt a mission.

Testing such hardware requires replicating the extremes of space as closely as possible on Earth. At NASA’s Jet Propulsion Laboratory (JPL) in California, engineers are subjecting the processor to an array of punishing conditions. These include radiation exposure, thermal cycling and mechanical shock, each designed to simulate the stresses encountered during launch, cruise and planetary operations.

One key challenge is mitigating the effects of cosmic radiation. Highly energetic particles from the Sun and beyond the Solar System can interfere with electronics, flipping bits in memory or triggering system failures. In current spacecraft, such disruptions often force systems into “safe mode,” suspending operations until ground controllers intervene. The new processor aims to reduce both the frequency and impact of these events.
The ship will decide what to transmit to Earth

Testing also extends to realistic mission scenarios. JPL engineers are feeding the system complex datasets based on planetary landings, where spacecraft must rapidly interpret sensor data to navigate hazardous terrain. These situations demand both computational speed and reliability—qualities that could prove decisive for future missions to the Moon, Mars and beyond.

The implications for astronomy and planetary science are profound. With significantly greater onboard processing power, spacecraft will be able to analyse data in situ, selecting the most valuable observations to transmit back to Earth. This is especially important for deep space probes operating across vast distances, where data bandwidth is limited and transmission opportunities are constrained.

The new processor is also expected to enable more sophisticated forms of onboard artificial intelligence. Rather than following pre-programmed instructions, spacecraft could adapt to changing conditions—rerouting observations, avoiding hazards or identifying unexpected phenomena without waiting for human input.
Quiet revolution

Despite its power, the chip remains remarkably compact. Like the processors found in smartphones, it integrates multiple functions into a single package. However, unlike consumer devices designed for a few years of use, this system must operate reliably for decades, potentially billions of miles from Earth, with no possibility of repair.

The project is being developed through a partnership between NASA and Microchip Technology Inc., reflecting a broader trend toward collaboration between government agencies and industry in the U.S. Once qualified, the processor is expected to feature in a wide range of missions, from Earth-orbiting satellites to interplanetary probes and crewed habitats.

In many ways, this effort represents a quiet revolution. While rockets capture the imagination, it is advances like these—embedded deep within spacecraft systems—that will determine how intelligently we explore the cosmos.


Tuesday, May 19, 2026

 SPACE/COSMOS

EU-China solar exploration spaceship launches successfully from French Guiana

A joint European–Chinese spacecraft has blasted off into orbit on a pioneering mission to uncover what happens when violent solar storms crash into Earth’s magnetic shield, in a project that could improve forecasts of dangerous space weather and deepen understanding of the auroras that light up polar skies.



Issued on: 19/05/2026 - RFI

The European Vega-C launcher carrying the SMILE (Solar Wind Magnetosphere Ionosphere Link Explorer) satellite on its first flight, launches as part of a mission developed and carried out in collaboration between the ESA and the Chinese Academy of Sciences at the Guiana Space Centre in Kourou, on 19 May 2026. AFP - RONAN LIETAR

The spacecraft, known as SMILE, lifted off aboard a Vega-C rocket at 03h52 GMT on Tuesday from Europe’s spaceport in Kourou, French Guiana, on the northeastern coast of South America. Around 55 minutes later, the spacecraft successfully separated from the rocket at an altitude of 700 kilometres and began its long journey into a highly elliptical orbit far above Earth.

Scientists hope the mission will provide an unprecedented view of the interaction between the Sun and Earth’s magnetic environment, helping researchers better understand how bursts of charged particles from the Sun can disrupt satellites, communications networks and power systems on Earth
.
This photograph shows the Smile spacecraft (gold) fixed to a Vega-C rocket adaptor (black cone) on 25 March 2026, in Kourou, French Guiana, in preparation for liftoff from Europe's Spaceport. AFP - M. PEDOUSSAUT


SMILE – short for Solar Wind Magnetosphere Ionosphere Link Explorer – is a joint mission between the European Space Agency and the Chinese Academy of Sciences. Roughly the size of a van, the spacecraft is set to make the first-ever X-ray observations of Earth’s magnetic field.

Its unusual orbit will allow the spacecraft to spend long periods studying the northern lights from afar. When passing over the South Pole, SMILE will descend to around 5,000 kilometres above Earth, enabling it to send data to the Bernardo O’Higgins research station in Antarctica.

At the other end of its orbit, the spacecraft will travel as far as 121,000 kilometres above Earth over the North Pole. According to the European Space Agency, this position will allow SMILE to observe the auroras continuously for up to 45 hours at a time – a first for any mission.

Tracking the Sun’s explosive power

Solar wind is a constant stream of charged particles emitted by the Sun, but at times the flow intensifies dramatically due to enormous eruptions of plasma known as coronal mass ejections. Travelling at speeds of around two million kilometres an hour, these blasts can take between one and two days to reach Earth.

When they arrive, Earth’s magnetic field acts as a protective barrier, deflecting most of the incoming particles. Yet during particularly strong solar storms, some charged particles can break through into the upper atmosphere.

Such events can have serious consequences. Powerful geomagnetic storms are capable of damaging satellites, disrupting communication systems and threatening astronauts aboard space stations. In extreme cases, they can even interfere with electricity networks on the ground.

The most severe geomagnetic storm ever recorded occurred in 1859 during the so-called Carrington Event. Bright auroras were reportedly visible as far south as Panama, while telegraph systems around the world malfunctioned and some operators received electric shocks.

Although such storms are rare, modern society is now far more dependent on technologies vulnerable to solar activity, making space weather research increasingly important.

A mission designed to improve forecasting

The SMILE mission aims to shed new light on these processes by detecting X-rays produced when charged particles from the Sun collide with neutral particles in Earth’s upper atmosphere. By observing these interactions directly, scientists hope to gain a clearer picture of how energy from the Sun enters and moves through Earth’s magnetic system.

Researchers believe the data gathered by SMILE could ultimately improve forecasting systems, allowing governments and industries more time to prepare for severe solar storms.

The spacecraft is expected to begin collecting scientific data just one hour after reaching orbit. The mission is planned to last for three years, though officials say it could continue longer if operations proceed smoothly.

Tuesday’s launch came after an earlier attempt scheduled for 9 April was postponed because of a technical issue.

(With newswires)


Joint ESA–China mission begins mapping Earth’s protective magnetic field

A night-time photo showing the Vega-C rocket, equipped with SMILE, from a launchpad. It is surrounded by four metal pylons and clouds of smoke
Copyright ESA-S. Corvaja

By Anna Desmarais
Published on

The SMILE mission will track the Earth’s magnetosphere, which protects the planet from charged particles that come from the Sun.

A European-Chinese mission that will X-ray the Earth’s magnetic atmosphere is officially in space.

The European Space Agency’s (ESA) Solar Wind Magnetosphere Ionosphere Link Explorer (SMILE) mission sent a 3-metre-tall spacecraft equipped with trackers and antennas into orbit on Tuesday from its launch site in French Guiana.

The joint mission, launched with the Chinese Academy of Sciences (CAS), will track the Earth’s magnetosphere, which protects the planet from gentle streams of charged particles, called the solar wind, that come from the Sun.

The SMILE mission will help scientists understand a gap in the solar system and help keep technology and astronauts safe in the future, according to ESA.

“If it weren’t for the magnetosphere, life could not survive on planet Earth,” ESA said about the mission.

The craft will measure how, where and when the solar winds interact with our planet during the mission.

During the mission, the craft will go as far as 121,000 kilometres above the North Pole, or one-third of the way to the Moon. It will also gather up to 45 hours per orbit of continuous observations of soft X-ray and ultraviolet light.

Smile sent its first signal back to scientists just two hours after launch, and it deployed solar panels, which means it can collect sunlight to power its systems and science instruments.

A galactic collision ignited stellar fireworks in the Milky Way



A study rewrites the history of the Milky Way and reveals how galaxy collisions can destroy stellar discs



University of Barcelona

A galactic collision ignited stellar fireworks in the Milky Way 

image: 

A frame from the Auriga simulations, which study galaxies similar to the Milky Way.

view more 

Credit: Matthew Orkney and Chervin Laporte





A new study led by researchers at the Institute of Cosmos Sciences of the University of Barcelona (ICCUB) and the Institute of Space Studies of Catalonia (IEEC) reveals how the discs of galaxies like the Milky Way are affected by ancient galactic collisions.

Published in the Monthly Notices of the Royal Astronomical Society, the study analyses, using simulations, how galaxy collisions can completely or partially destroy stellar discs. Together with observational data on star clusters, the authors use this study to improve predictions about the timing of the last significant galactic collision in the Milky Way.

When did the Milky Way’s disc spin up?

The disc of the Milky Way is a vast, rotating, pancake-shaped system of stars, with spiral arms winding out from its centre. This disc contains the majority of the galaxy’s stars, including the Sun, and rotates at over 220 kilometres per second.

For a long time, astronomers have tried to determine when this rotating disc formed. A key clue lies in the motions and ages of the stars: at some point in the galaxy’s early history, the stars began moving in a coherent, rotating pattern, marking what scientists call the galaxy’s spin-up time.

However, the Milky Way did not form in isolation. For decades, scientists have suspected that a violent collision with a smaller galaxy played an important role in shaping the Milky Way as we observe it today. This suspicion was confirmed in 2018, when data from the Gaia mission revealed a large population of stars whose unusual motions could only be explained by a massive merger that occurred about ten billion years ago. This event is now known as the Gaia-Sausage-Enceladus (GSE) merger.

In this study, simulations of Milky Way–like galaxies (the Auriga simulations) are used to investigate how rotating discs form under different scenarios. These simulations show how galaxies such as the Milky Way react to ancient collisions.

Galactic fires and ancient collisions

The study shows that rotating stellar discs often formed much earlier than previously thought, but can be partially or completely destroyed by major galactic collisions. As a result, the moment when the Milky Way’s disc appears to spin up cannot mark when the first time the disc formed, but rather the moment when the galaxy recovered from a destructive merger.

Applying insights from these simulations, the authors infer that the Gaia–Sausage–Enceladus merger probably occurred about 11 billion years ago, earlier than many previous estimates had indicated. Crucially, this timing coincides with a sharp increase in the formation of star clusters in the Milky Way. These bursts of star formation are a natural consequence of galactic collisions, which compress gas and trigger intense star formation.

“Models of the Gaia–Sausage–Enceladus merger predict that a galactic firework should have followed the impact, raising star formation and fostering the formation of globular clusters. This is the first time this link has been made,” says co-author Chervin F. P. Laporte, a researcher at the French National Centre for Scientific Research (CNRS).

“This research highlights the important relationship between galactic structure and ancient collisions, which must be understood in unison in order to understand the history of our galaxy,” adds Matthew D. A. Orkney, the study’s lead author and a researcher at ICCUB and IEEC.

Scientists cannot travel back in time to observe the Milky Way in its youth, but they can observe the formation of similar galaxies in the distant Universe using new data from the James Webb Space Telescope (JWST) and the Atacama Large Millimeter/submillimeter Array (ALMA), a powerful radio telescope.

The full paper is available here, and Auriga simulation data are publicly accessible for future research.


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SwRI findings reconsider the existence of Europa’s vapor plumes


Reanalysis of 14 years of data shifts beliefs about Jupiter’s moon



Southwest Research Institute

Investigating Europa 

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A new SwRI study has raised doubts about the existence of water vapor plumes on Jupiter’s moon Europa (shown above), initially reported based on Hubble Space Telescope observations from 2012. A reanalysis of the data reduced the certainty of that initial finding, but scientists are still hopeful that such plumes will be observed at some point in the future.

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Credit: NASA





SAN ANTONIO — May 18, 2026 — Looking back at 14 years of Hubble telescope data for Jupiter’s moon Europa has given Southwest Research Institute (SwRI) scientists a better understanding of its tenuous atmosphere. The findings have cast doubt on previous evidence suggesting that the icy moon intermittently discharges faint water plumes from a presumed subsurface ocean.

“The evidence for water vapor plumes on Europa isn’t as strong as we first understood it,” said SwRI’s Dr. Kurt Retherford, one of the authors of a 2014 paper initially making that assertion. Retherford and his colleagues have recently published a new paper reanalyzing the data.

The new paper looks at the last 14 years of data from the Hubble Space Telescope’s Space Telescope Imaging Spectrograph (HST/STIS) focused on Europa’s Lyman-alpha emissions. Lyman-alpha is a specific wavelength of ultraviolet light emitted and scattered by hydrogen atoms. From 2012-2014, the team was pushing the limits of the Hubble telescope’s capabilities.

“One of the difficulties in interpreting the data back then was determining where to place Europa within its context,” Retherford said. “The way Hubble works left some uncertainty in terms of placement relative to the center of the image. If Europa’s placement was off even just by a pixel or two, it could affect how the data gets interpreted.”

As a result, what they thought could be evidence of a water vapor plume could also just be statistical noise.

“Our reanalysis took our original 99.9% confidence in the plumes’ existence and reduced it to less than 90% confidence,” said Dr. Lorenz Roth (Royal Technical Institute, Sweden), the paper’s lead author. “That’s simply not enough evidence to support the certainty of claims we made at the time."

Retherford said the current dataset does not rule out the possibility of the water vapor plumes described in the 2014 paper, but it no longer provides concrete evidence of them.

“The description of the phenomena just doesn't hold up the same way anymore,” said Retherford. “The new data has made us reconsider the strength of the previous paper’s conclusion regarding water vapor plumes. The recent analysis also provides improved information about the neutral hydrogen atom component of Europa’s escaping atmosphere, originating from its water ice surface.”

SwRI scientists still hope to find water vapor plumes escaping from Europa. Similar water vapor plumes have been confirmed on Saturn’s moon Enceladus, and Europa’s neighbor Io, another moon of Jupiter, has plumes of sulfur dioxide expanding out into space.

Scientists are particularly interested in Europa because its icy surface is thought to obscure a vast saltwater ocean beneath. Cracks in Europa’s icy shell could provide potential pathways for liquid water to rise to the surface and shoot out into space. This remains a distinct possibility that NASA’s Europa Clipper mission will investigate when it arrives in the Jupiter system in 2030.

To read the Astronomy & Astrophysics paper titled “Europa’s Lyman-alpha emissions from HST/STIS observations,” go to https://doi.org/10.1051/0004-6361/202659406.

For more information, visit https://www.swri.org/markets/earth-space/space-research-technology/space-science/planetary-science.