The US Army is taking a bold step toward revolutionizing battlefield logistics by awarding Raytheon a contract to develop a directed energy wireless power system. This innovative technology aims to eliminate the reliance on fuel and battery supply chains by transmitting energy directly where it’s needed using high-energy microwave beams.

Military logistics are a daunting challenge, with every soldier representing the end of a long supply chain. Fuel, batteries, food, and ammunition are essential but difficult to maintain in forward positions. Modern soldiers carry up to 140 pounds of gear, much of it consisting of batteries for electronic equipment. Heavy and cumbersome, these batteries are often discarded as quickly as possible.

Elon Musk has spotlighted a groundbreaking innovation from The Boring Company, his tunneling startup, that could redefine how tunnels are constructed. Musk revealed that the company’s latest tunnel boring machines (TBMs) can begin excavation without prior site preparation—a significant leap forward in tunneling technology.

Earlier this month, The Boring Company shared an image of its Prufrock-3 TBM undergoing final checks on “The Monster,” a specialized machine designed to launch and retrieve Prufrock. With The Monster’s assistance, the company can rapidly initiate tunnel excavation, drastically reducing project timelines.

China has achieved a groundbreaking milestone in scientific research with the launch of the Centrifugal Hypergravity and Interdisciplinary Experiment Facility (CHIEF)—the world’s most advanced hypergravity system. Located in Hangzhou, Zhejiang province, CHIEF boasts the largest and most powerful hypergravity centrifuge ever constructed.

When fully operational, the facility will generate gravitational forces thousands of times stronger than Earth’s gravity (1g), enabling revolutionary studies under extreme conditions. Scientists anticipate transformative applications in fields such as aerospace, energy, engineering, and material sciences.

Researchers have achieved a groundbreaking milestone by designing realistic photonic time crystals—extraordinary materials that can exponentially amplify light. This innovation, driven by an international team of scientists, paves the way for transformative applications in communication, imaging, and sensing technologies, promising faster, more compact lasers and advanced optical devices.

“This work could lead to the first experimental realization of photonic time crystals, propelling them into practical applications and potentially transforming industries,” explains Assistant Professor Viktar Asadchy from Aalto University in Finland. “From high-efficiency light amplifiers and advanced sensors to cutting-edge lasers, this research redefines our understanding of light-matter interactions.”

Biological factors may play a larger role in sleep differences than previously understood, according to new findings that could reshape the landscape of biomedical research. The study highlights a significant oversight in animal research—failure to account for sex differences in sleep behavior—which may lead to flawed data interpretations.

“Essentially, we found that the most commonly used mouse strain in biomedical research has sex-specific sleep behavior, and a failure to properly account for these differences can easily skew results,” said Grant Mannino, the study’s first author and a psychology and neuroscience graduate.

When most people think of freshly poured concrete, they likely imagine a smooth, flawless surface left to dry. But a new wheeled robot is challenging that convention by driving right over wet concrete, gouging grooves into the material to strengthen it—while also reducing construction costs.

In traditional concrete construction, rebar is used to reinforce the material, providing additional strength to withstand tension. However, rebar is not only expensive but also adds significant weight to the structure. To mitigate the need for so much rebar, construction workers often manually add grooves to the surface of each layer while the concrete is still wet. These grooves increase the surface area for bonding with the next layer of concrete, which improves the shear strength at the interface, allowing for less rebar to be used.