Lifeboat Foundation

The ambitious plan involves catching the falling Super Heavy boosters using the launch tower’s “chopstick” arms. This innovative approach aims to revolutionise rocket recovery and enhance the reusability of the company’s Starship system.

Recent footage shared by SpaceX showcases tests of the chopstick mechanism at their Starbase facility in Texas. The company has been observed clamping the tower arms around a portion of a Super Heavy booster to evaluate the system’s parameters.

This testing is crucial for verifying the forces the chopsticks will need to withstand during an actual catch attempt.

The breakthrough could lead to more durable—and drastically safer—buildings.

MIT just produced three groundbreaking innovations that allowed them to map whole hemispheres of the human brain.

Computer vision, one of the major areas of artificial intelligence, focuses on enabling machines to interpret and understand visual data. This field encompasses image recognition, object detection, and scene understanding. Researchers continuously strive to improve the accuracy and efficiency of neural networks to tackle these complex tasks effectively. Advanced architectures, particularly Convolutional Neural Networks (CNNs), play a crucial role in these advancements, enabling the processing of high-dimensional image data.

One major challenge in computer vision is the substantial computational resources required by traditional CNNs. These networks often rely on linear transformations and fixed activation functions to process visual data. While effective, this approach demands many parameters, leading to high computational costs and limiting scalability. Consequently, there’s a need for more efficient architectures that maintain high performance while reducing computational overhead.

Current methods in computer vision typically use CNNs, which have been successful due to their ability to capture spatial hierarchies in images. These networks apply linear transformations followed by non-linear activation functions, which help learn complex patterns. However, the significant parameter count in CNNs poses challenges, especially in resource-constrained environments. Researchers aim to find innovative solutions to optimize these networks, making them more efficient without compromising accuracy.

NASA Glenn engineers Chirs Kantzos and Tim Smith can now call themselves inventors, too. They are the minds behind NASA’s breakthrough material, a superalloy…

Positioned between microwaves and infrared light, terahertz waves are key to pioneering advancements in imaging and diagnostic technologies. A recent discovery at Tohoku University of a material that can emit these waves more intensely promises to catalyze significant breakthroughs across a spectrum of industries.

Terahertz waves are being intensely studied by researchers around the world seeking to understand the “terahertz gap.” Terahertz waves have a specific frequency that put them somewhere between microwaves and infrared light. This range is referred to as a “gap” because much remains unknown about these waves. In fact, it was only relatively recently that researchers were able to develop the technology to generate them. Researchers at Tohoku University have brought us closer to understanding these waves and filling in this gap of knowledge.

Breakthrough in Terahertz Wave Generation.

Researchers have successfully manipulated the structural properties of magnetite using light-induced phase transitions.

This technique uncovered hidden phases of magnetite, paving the way for new approaches to material manipulation in electronics.

Breakthrough in magnetite phase transition research.

Our technological prowess is unrivaled. From the simplest inventions to the most complex machines, we have continually pushed the limits of what is possible. But as our capabilities grow exponentially, a looming question arises: are we heading towards a technological singularity that could change the course of humanity?

The concept of technological singularity has moved beyond the fringes of futurism; it is now an imminent possibility. Defined as the hypothetical future point when technologies have become so advanced that humanity undergoes a dramatic and irreversible change, the singularity presents an inescapable, exhilarating, and terrifying problem for philosophers, scientists, and every human being.

Are we prepared for the implications, the ramifications, and the profound changes that a tech-driven future might bring?

An innovative project to re-purpose existing drugs for their potential as antibiotics has uncovered a highly promising candidate with a potent and unique way of killing drug resistant bacteria.