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Researchers from the Carl Sagan Institute at Cornell University have conducted a study to pinpoint exoplanets that may harbor optimal conditions for extraterrestrial life. The findings of this scientific investigation were recently published in the journal "Monthly Notices of the Royal Astronomical Society." The study suggests that several celestial bodies outside our solar system possess environmental traits that could potentially sustain biological organisms.
Among the identified candidates, Proxima Centauri b stands out as a primary interest due to its proximity to Earth, located only 4.2 light-years away. It is situated within the habitable zone of its host star, where temperatures may allow for the existence of liquid water on the surface. Because of these factors, it is considered one of the most viable exoplanets for supporting life as we know it, making it a focal point for modern astrobiology.
However, the authors of the study emphasize that reaching these distant worlds remains a challenge beyond current human capabilities. The immense distances involved mean that physical exploration is not feasible with existing spacecraft technology. For now, scientists must rely on sophisticated remote sensing and atmospheric analysis to gather data about these far-off planetary systems.
Abigail Bull, one of the study's co-authors, explained that the current priority is to determine which planets possess the right ingredients for life. Once scientists can confirm the presence or absence of life-sustaining environments, they will be able to direct more focused research toward the most promising exoplanets. This strategic approach aims to streamline the search for habitable worlds and deepen our understanding of our place in the universe.
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On-the-Go Power: Japanese Engineers Develop Wireless In-Road Charging for Electric Vehicles
10 Oct. 08:10In a major leap for electric mobility, Honda R&D, alongside Taisei Corporation and Taisei Rotec, has unveiled an innovative dynamic wireless charging system that charges electric vehicles as they drive. By embedding compact energy-transmitting modules directly into the road surface, the system transfers power via a magnetic field to receivers mounted underneath moving vehicles. Designed to withstand heavy commercial transport up to 20 tons, real-world road testing is scheduled to begin in Japan in April 2027.
The technology eliminates the need for full road reconstruction, as modules can be integrated directly into milled asphalt layers. Aimed at boosting charging power up to 150 kW in future iterations, this infrastructure solution promise to significantly reduce grid pressure on traditional charging stations, particularly for logistics and commercial fleets.