Category: Science & Technology News

Mitochondria, the powerhouse of the cell, are critical in regulating cellular functions such as growth, survival, and energy production. Due to their central role in cancer cell metabolism, these organelles have become key targets for innovative cancer therapies. Mitochondrial genetics and metabolism contribute significantly to cancer progression, influencing processes like cell motility, invasion, and the tumor microenvironment. Despite these promising insights, the development of therapies targeting mitochondria has faced significant hurdles.

Current mitochondrial-targeted treatments, such as mitocans and mitochondriotoxics, focus on disrupting key signaling pathways and proteins involved in cellular energy processes, including hexokinase and Bcl2 family proteins. However, the presence of mutations in cancer cells limits the long-term effectiveness of these therapies, making it difficult to achieve sustained clinical success. A promising advancement in the field is mitochondrial optogenetics (mOpto), a technique that introduces light-gated channelrhodopsins into mitochondria, enabling controlled depolarization of the mitochondrial membrane potential (∆Ψm) and subsequent cell death. While this technology showed promise, its reliance on external light sources restricts its application to surface-level tumors.

Australian company SPEE3D has successfully proven that its XSPEE3D technology for additive manufacturing of metal parts operates efficiently in extremely cold environments. As part of the U.S. Department of Defense’s “Point of Need Challenge” project, the company demonstrated that metal components produced in sub-arctic temperatures exhibit material properties comparable to those created under standard laboratory conditions.

The project aimed to assess manufacturing technologies capable of producing and repairing large metal parts in extreme climates. SPEE3D’s successful demonstration took place at the U.S. Army’s Cold Regions Research and Engineering Laboratory (CRREL) in Hanover, New Hampshire, at the end of 2023. The initiative was carried out in collaboration with the New Jersey Institute of Technology’s (NJIT) COMET project, Philips Federal, and the LIFT innovation platform in Detroit.

Gameto has achieved a historic milestone in reproductive health with the world’s first live human birth using Fertilo, a cutting-edge ovarian support cell (OSC) technology. The groundbreaking birth took place at Santa Isabel Clinic in Lima, Peru, and could represent a significant leap forward in fertility management.

Traditional in vitro fertilization (IVF) methods require women to undergo 10–14 days of high-dose hormonal injections to mature eggs. In contrast, Fertilo uses engineered, young ovarian support cells to replicate the natural egg maturation process outside the body. This innovative technology reduces the need for up to 80% fewer hormone injections compared to traditional IVF and shortens treatment cycles to just three days.

Japanese researchers have demonstrated that freeze-dried mouse sperm can remain viable on the International Space Station (ISS) for extended periods, producing healthy offspring despite exposure to space radiation levels 100 times higher than Earth’s.

Led by Professor Teruhiko Wakayama at the University of Yamanashi, the research shows promise for preserving genetic materials in space long-term. The team’s freeze-dried sperm, stored on the ISS for nearly six years, successfully produced healthy “space pups” with no genetic abnormalities.

Research reveals biomethane as a promising alternative to natural gas in ammonia production, offering potential carbon negativity while maintaining compatibility with existing infrastructure.

Environmental engineer Aurelian Istrate’s research demonstrates that biomethane, derived from food waste and agricultural residues, can replace natural gas in ammonia synthesis. Unlike natural gas, biomethane’s carbon emissions are offset by recent atmospheric CO2 capture during biomass growth.

Scientists at Penn State have demonstrated precise control over material properties through “atomic spray painting” of potassium niobate using molecular beam epitaxy (MBE). The technique, detailed in Advanced Materials, allows for exceptional control through strain tuning—modifying a material’s properties by manipulating its atomic structure.

The team achieved a first by growing potassium niobate using MBE, which deposits atomic layers onto a substrate. By creating strain through template-guided growth, they enhanced the material’s ferroelectric properties. Even a 1% strain produced pressure effects impossible to achieve through external forces.

Climate change is causing widespread bleaching and death among the world’s coral reefs due to rising sea temperatures. In response, Dr. Benyamin Rosental of Ben-Gurion University of the Negev and his team have proposed an innovative potential solution: transplanting stem cells from resilient corals to revive vulnerable ones.

In a recent paper published in Cell Reports, Dr. Rosental, along with Shani Talice and their colleagues, demonstrated for the first time the feasibility of transplanting stem cells into sea anemones, close relatives of corals. Their research showed that stem cells from hexacorallia (Nematostella vectensis) successfully integrated, differentiated, and proliferated in transplanted individuals.

A Sweden-based company, Novatron Fusion Group, has launched the TauEB project, an innovative initiative aimed at achieving commercially viable fusion energy. By revolutionizing plasma confinement and energy containment techniques, the project seeks to position fusion power as a competitive and sustainable energy source.

The TauEB project introduces a groundbreaking integration of three physical confinement techniques: Magnetic Confinement, Ambipolar Plugging, and Ponderomotive Confinement. This combination marks a first-of-its-kind approach to improving plasma stability and energy retention in fusion reactors.

Green hydrogen is often proposed as a climate-friendly alternative to natural gas for energy production. However, the infrastructure for a green hydrogen economy is still in its infancy and may take years to fully materialize, if it happens at all. To bridge this gap and sustain small natural gas power plants in the interim, the German Aerospace Center (DLR) and power-plant service provider Power Service Consulting (PSC) have tested micro-turbines capable of running on hydrogen, natural gas, or a combination of both.

Peter Kutne, head of the Gas Turbines Department at the DLR Institute of Combustion Technology, emphasized the cost and time benefits of retrofitting gas turbines for hydrogen compatibility. Building a new 15-megawatt gas turbine power plant typically requires six years and costs approximately $31 million (€30 million). In contrast, retrofitting an existing plant takes just 1.5 years and costs about a tenth of that amount.

Researchers at Nanyang Technological University in Singapore have unveiled a groundbreaking machine capable of transforming ordinary cockroaches into remotely controlled cyborgs. This innovative device equips each cockroach with portable stimulation and communication electronics in just 68 seconds, a significant improvement over traditional methods that require up to 30 minutes and specialized skills.

The “cyborgized” cockroaches are fitted with an electronic “backpack” that enables remote control through electronic stimulation of their antennae. By stimulating either the left or right antenna, researchers can influence the cockroach’s direction. Unlike earlier techniques that demanded manual precision, the newly developed machine automates the process, paving the way for large-scale production of these enhanced insects. The researchers claim this process is harmless to the cockroaches and can potentially scale to produce hundreds or even thousands of cyborg cockroaches on demand.

Researchers at the Massachusetts Institute of Technology (MIT) have made a significant breakthrough in addressing the global microplastic pollution crisis by developing innovative biodegradable particles that could revolutionize both environmental protection and nutritional supplementation.

Microplastics, tiny plastic particles found ubiquitously across the planet, pose a substantial environmental threat originating from everyday items like tires, clothing, and packaging. Recognizing the urgent need for sustainable solutions, MIT’s chemical engineers have created eco-friendly polymers that naturally decompose into harmless byproducts such as sugars and amino acids.

Researchers from the Karlsruhe Institute of Technology (KIT) and international collaborators have made a groundbreaking advancement in photonic space-time crystals, opening new frontiers for optical technologies with potentially transformative applications in wireless communication, lasers, and information processing.

Photonic space-time crystals represent a remarkable scientific innovation—materials engineered with a unique four-dimensional structure that allows precise manipulation of light’s behavior. Unlike traditional materials, these crystals feature a periodically arranged structure that changes dynamically across three spatial dimensions and time, enabling unprecedented control over light’s spectral properties.