Lifeboat Foundation

Get ready to be inspired by Camp Peavy, a well-known figure in the robotics industry and a passionate member of the HomeBrew Robotics Club in Silicon Valley! 🤖✨

In this engaging Q\&A, Camp dives into his incredible robotics journey, offering unique insights into the world of innovation and technology. He also shares invaluable tips for those who are new to robotics, feeling unsure, or looking for a spark of motivation to dive into this exciting field.

Continue reading “SpaceX to attempt first payload deployment, engine reuse during Starship Flight 7” »

Currently, 5,788 exoplanets have been confirmed in 4,326 star systems, while thousands more candidates await confirmation. So far, the vast majority of these planets have been gas giants (3,826) or Super-Earths (1,735), while only 210 have been “Earth-like”—meaning rocky planets similar in size and mass to Earth.

What’s more, the majority of these planets have been discovered orbiting within M-type (red dwarf) star systems, while only a few have been found orbiting sun-like stars. Nevertheless, no Earth-like planets orbiting within a sun-like star’s habitable zone (HZ) have been discovered so far.

This is largely due to the limitations of existing observatories, which have been unable to resolve Earth-sized planets with longer orbital periods (200 to 500 days). This is where next-generation instruments like the ESA’s PLAnetary Transits and Oscillations of stars (PLATO) mission come into play.

Lithium metal, a next-generation anode material, has been highlighted for overcoming the performance limitations of commercial batteries. However, issues inherent to lithium metal have caused shortened battery lifespans and increased fire risks. KAIST researchers have achieved a world-class breakthrough by extending the lifespan of lithium metal anodes by approximately 750% using only water.

Their study is published in the journal Advanced Materials.

Professor Il-Doo Kim from KAIST’s Department of Materials Science and Engineering, in collaboration with Professor Jiyoung Lee from Ajou University, successfully stabilized lithium growth and significantly enhanced the lifespan of next-generation lithium metal batteries using eco-friendly hollow nanofibers as protective layers.

Elon the Great.

Sam Altman penned a blog post on his website titled Reflections, where he mused on the brief history of ChatGPT and where OpenAI is heading — AGI came up right away.

In a groundbreaking study, scientists have discovered a way to manipulate the very fabric of life by using light to reshape DNA strands. This innovative approach provides new insights into the material properties of chromosomes, unlocking potential advancements in understanding gene expression and developing treatments for genetic diseases.

Chromatin, the material that makes up chromosomes, is a complex structure where long strands of DNA are wrapped tightly around proteins. Despite its compact nature, chromatin must unfurl in certain regions to allow cells to access and replicate genetic information.

Some areas remain rigid and coiled, silencing genes, while others are flexible and accessible, facilitating gene expression. This duality has led scientists to question whether chromatin behaves like a solid, a liquid, or a hybrid of both.

May the Force Be Among Us: Exploring our MultiVerse with the help of Star Wars and other movies with Jean-Francois Vezina from the series \.

This is pretty cool because many are getting into Real Estate these days. AI is meant to augment, not replace.

Discover how AI in real estate is driving a paradigm shift with 16 innovative use cases and examples in this detailed blog.

Revolutionary glasses have been engineered to shield individuals from seizure-inducing light, offering a potential new layer of safety for epilepsy patients during daily tasks and entertainment.

People with photosensitive epilepsy may soon benefit from an innovative pair of glasses designed to block light wavelengths known to trigger seizures.

Researchers from the University of Glasgow and the University of Birmingham have developed a prototype liquid crystal lens that could help reduce the risk of seizures. Their findings, published in Cell Reports Physical Science, highlight the potential of this technology to improve the lives of those with photosensitive epilepsy.

Integrated into a high-resolution wireless biosensing device, the antennas could enable researchers to decode complex electrical signals generated by cells.

Monitoring electrical signals in biological systems allows scientists to study how cells communicate, providing valuable insights that can improve the diagnosis and treatment of conditions such as arrhythmia and Alzheimer’s disease.

But devices that record electrical signals in cell cultures and other liquid environments often use wires to connect each electrode on the device to its respective amplifier. Because only so many wires can be connected to the device, this restricts the number of recording sites, limiting the information that can be collected from cells.