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AI-powered intelligent 6G radio access technology significantly enhances wireless communication performance

Korea’s research community has reached an important milestone on the path toward next-generation mobile communications with the development of a technology platform that brings the 6G era closer. Researchers expect that AI-Native mobile networks, in which artificial intelligence autonomously controls and optimizes the communication system, could achieve transmission efficiencies up to 10 times higher than those of 5G.

Breakthroughs in AI-based wireless access ETRI has completed the development of AI-based wireless access technology (AI-RAN), a core foundational technology for the 6G era, and has achieved significant results in paving the way for the AI-based next-generation mobile communication era.

The biggest feature of this technology is that it has applied AI to wireless transmission, network control, and edge computing throughout the network to reliably handle large volumes of data even in ultra-dense network environments.

Greener method recovers critical metals from spent batteries

Researchers have developed a breakthrough method to recover high-purity nickel, cobalt, manganese and lithium from spent lithium-ion batteries using a mild, sustainable solvent.

The process, detailed in the journal Sustainable Materials and Technologies, offers a safer and more environmentally friendly alternative to traditional high-temperature or chemical-intensive recycling methods.

Globally, around 500,000 metric tons of spent lithium-ion batteries (LIBs) have already accumulated, and about 10% of spent batteries are fully recycled in Australia.

Scientists May Have Discovered a Way to Rejuvenate The Immune System

As we age, the immune system gradually declines in function, leaving the body more vulnerable to disease. Scientists have discovered a new way to rejuvenate a key component of immune function, potentially boosting health in later years.

A team from the Broad Institute of MIT and Harvard focused on the thymus, a small organ in front of the heart that’s crucial for the development of T cells. These immune cells act as guards, identifying and fighting threats such as cancer and infections.

From early adulthood, the thymus shrinks and slows, limiting T cell production. In mouse models, the researchers were able to repurpose part of the liver as a thymus substitute, sending the molecular signals that stimulate T-cell production.

Using lab-grown lung tumors as test subjects for tailored cancer therapies

Lung cancer varies widely from patient to patient, and that diversity makes it hard to find effective treatments. Researchers at the Berlin Institute of Health at Charité (BIH) have developed a method to evaluate multiple therapeutic approaches on patient-derived “tumoroids”—miniature tumors grown from tissue removed during surgery at Charité

By testing drug responses across these tumoroids, the team showed that therapeutic success depends on a complex interplay of tumor characteristics rather than a single factor. Their results suggest that tumoroid-based testing could help physicians tailor treatments to individual patients and improve clinical decision-making.

The BIH researchers have published their findings in Nature Biomedical Engineering.

A novel mechanism for cancer-associated weight loss

Combined metabolomics and transcriptomics analysis in eight different organs of tumor-bearing mice with and without cachexia allowed researchers to create metabolic signatures typical of cancer-associated weight loss. High-throughput analyses identified a cachexia-specific metabolic and genetic signature that provides insight into the progression of these metabolic changes.

The researchers found that all organs showed increased activation of the so-called “one carbon cycle”, a biochemical process essential for the synthesis of nucleotides, amino acids, and cell regeneration. Products of this cycle, such as sarcosine or dimethylglycine, could potentially serve as biomarkers for cachexia in the future.

The study also revealed that hyperactivation of the one carbon cycle in muscle is associated with increased glucose metabolism (glucose hypermetabolism) and muscle atrophy. Early experiments suggest that inhibiting this process could prevent muscle loss. Comparative analyses across eight different mouse tumor models (lung, colon, and pancreatic cancer) confirmed that the one carbon signature represents a universal cachexia signature, independent of cancer type.

Currently, there is no approved drug for cancer cachexia in Germany. New approaches are being explored to address cancer-related appetite loss. This study provides the first evidence of how metabolism itself could potentially be normalized. Early experiments in cell cultures show that interventions targeting the one carbon cycle can have positive effects. sciencenewshighlights ScienceMission.


Cachexia is a metabolic disorder that causes uncontrolled weight loss and muscle wasting in chronic diseases and cancer. A new study shows that cachexia affects more than just muscles. Numerous organs respond in a coordinated manner, ultimately contributing to muscle loss. Analysis of metabolome and transcriptome data, along with glucose tracing in tumor-bearing mouse models, identified a novel mechanism that plays a key role in cancer-associated weight loss.

A loss of 10% of body weight within six months – what may sound desirable in some contexts – often causes uncertainty and frustration in cancer patients with cachexia, as they are unable to maintain or gain body weight despite wanting to. Cachexia (from the Greek kakós, “bad,” and héxis, “condition”) affects 50–80% of all cancer patients, reduces quality of life, diminishes the effectiveness of cancer therapies, and increases mortality.

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