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Chinese firm Xpeng announced its plans to mass-produce flying cars and humanoid robots by next year.

He Xiaopeng, XPeng Motors’ chairman and CEO, stated that if the project remains on track, XPeng could be the first company to mass-produce flying cars globally, reports a Chinese online daily.

The company’s Iron humanoid robot is now in use at the EV maker’s Guangzhou factory, and it plans to start mass-production. By 2026, humanoid robots with entry-level Level 3 capabilities in the country are expected to enter moderate-scale commercial production, Xiapeng added.


Chinese EV maker XPeng aims to mass-produce flying cars and humanoid robots, with Level 3 robots set for commercial production by 2026.

Immunotherapy boosts a person’s own immune system to identify and fight cancer cells that normally evade its defenses.

However, like traditional cancer treatments, immunotherapy may cause or exacerbate cognitive decline, especially in older adults. Because this treatment is much newer than chemotherapy or radiation, these potential side effects have not yet been widely studied.

Gee Su Yang, assistant professor at the UConn School of Nursing, has received a $60,000 CRISP (Clinical Research Innovation Seed Program) Award from the Office of the Vice President for Research to conduct a pilot study of how immunotherapy impacts cognitive function in older cancer patients.

Empa researchers are working on artificial muscles that can keep up with the real thing. They have now developed a method of producing the soft and elastic, yet powerful structures using 3D printing. One day, these could be used in medicine or robotics – and anywhere else where things need to move at the touch of a button.


A team of researchers from Empa’s Laboratory for Functional Polymers is working on actuators made of soft materials. Now, for the first time, they have developed a method for producing such complex components using a 3D printer. The so-called dielectric elastic actuators (DEA) consist of two different silicone-based materials: a conductive electrode material and a non-conductive dielectric. These materials interlock in layers. “It’s a bit like interlacing your fingers,” explains Empa researcher Patrick Danner. If an electrical voltage is applied to the electrodes, the actuator contracts like a muscle. When the voltage is switched off, it relaxes to its original position.

3D printing such a structure is not trivial, Danner knows. Despite their very different electrical properties, the two soft materials should behave very similarly during the printing process. They should not mix but must still hold together in the finished actuator. The printed “muscles” must be as soft as possible so that an electrical stimulus can cause the required deformation. Added to this are the requirements that all 3D printable materials must fulfill: They must liquefy under pressure so that they can be extruded out of the printer nozzle. Immediately thereafter, however, they should be viscous enough to retain the printed shape. “These properties are often in direct contradiction,” says Danner. “If you optimize one of them, three others change … usually for the worse.”

Green hydrogen, produced through renewable energy sources, is considered a crucial element in the transition towards a cleaner energy future. However, current production methods are costly and energy-intensive, limiting their widespread adoption.

This new reactor uses photocatalytic sheets to split water molecules into hydrogen and oxygen using a process powered entirely by sunlight. This innovative process has the potential to drastically reduce production costs and make green hydrogen a more economically viable fuel source.

While the technology is still in its early stages, the researchers have successfully operated the prototype reactor for three years under natural sunlight, demonstrating its potential for real-world applications. Despite the promising results, the researchers acknowledge that further improvements are needed. Enhancing the efficiency of the photocatalytic process and ensuring the safe handling of potentially explosive byproducts are crucial steps towards commercialization.

The team remains optimistic that with continued research and development, this technology can revolutionize green hydrogen production and pave the way for a cleaner, more sustainable energy future. This breakthrough is particularly important for Japan, a country actively pursuing a “hydrogen society” and leading the way in hydrogen fuel technology. It could also accelerate the transition towards a hydrogen-based economy and contribute to global efforts in combating climate change.

Did you know that up to 20% of people with lung cancer have never smoked?

Sherlock-Lung is a comprehensive study that uses genomic approaches to trace the causes of lung cancer among people who have never smoked.


Sherlock Lung is a genomic epidemiologic study of lung cancer in never smokers conducted by researchers in DCEG.

Histone proteins provide essential structural support for DNA in chromosomes, acting as spools around which DNA strands wrap. These proteins have been well studied, but most current tools to study gene expression rely on RNA sequencing. Histone RNA is unique in that its structure prevents the RNA molecules from being detected by current methods.

Thus, the expression of histone genes may be significantly underestimated in tumor samples. The researchers hypothesized that the increased proliferation of cancer cells leads to a very elevated expression, or hypertranscription, of histones to meet the added demands of cell replication and division.

To test their hypothesis, the researchers used CUTAC profiling to examine and map RNAPII, which transcribes DNA into precursors of messenger RNA. They studied 36 FFPE samples from patients with meningioma – a common and benign brain tumor – and used a novel computational approach to integrate this data with nearly 1,300 publicly available clinical data samples and corresponding clinical outcomes.

In tumor samples, the RNAPII enzyme signals found on histone genes were reliably able to distinguish between cancer and normal samples.

RNAPII signals on histone genes also correlated with clinical grades in meningiomas, accurately predicting rapid recurrence as well as the tendency of whole-arm chromosome losses. Using this technology on breast tumor FFPE samples from 13 patients with invasive breast cancer also predicted cancer aggressiveness.


Using a new technology and computational method, researchers have uncovered a biomarker capable of accurately predicting outcomes in meningioma brain tumors and breast cancers.

An international team of astronomers led by scientists from the Netherlands has shown that a white dwarf and a red dwarf orbiting each other every two hours are emitting radio pulses. Thanks to observations with several telescopes, the researchers were able to determine the origin of these pulses with certainty for the first time. Their results are published in Nature Astronomy.

In recent years, thanks to better analysis techniques, researchers have detected pulses that last from seconds to minutes and seem to come from stars in the Milky Way. There have been many hypotheses about what triggers these pulses, but until now there has been no hard evidence. An international study led by Iris de Ruiter of the Netherlands changes this.

De Ruiter, who received her Ph.D. from the University of Amsterdam in October 2024, is now a postdoctoral researcher at the University of Sydney (Australia). During the last year of her Ph.D., she developed a method to search for radio pulses of seconds to minutes in the LOFAR archive. While improving the method, she discovered a single in the 2015 observations. When she subsequently sifted through more archive data from the same patch of sky, she discovered six more pulses. All the pulses came from a source called ILTJ1101.