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Holograms provide a three-dimensional (3D) view of objects, offering a level of detail that two-dimensional (2D) images cannot match. Their realistic and immersive display of 3D objects makes holograms incredibly valuable across various sectors, including medical imaging, manufacturing, and virtual reality.

Traditional holography involves recording an object’s three-dimensional data and its interactions with light, a process that demands high computational power and the use of specialized cameras for capturing 3D images. This complexity has restricted the widespread adoption of holograms.

Some have described the last several millennia of human dominion over the earth’s resources as the anthropocene, deriving from the Greek “anthropo” meaning human, and “cene” meaning recent. The last century in particular has been dubbed the fourth industrial revolution, due to the pace of technological innovation ushered in by the advent of computers in the middle of the 20th century.

In the past seventy years, computation has transformed every aspect of society, enabling efficient production at an accelerated rate, displacing human labour from chiefly production to services, and exponentially augmenting information storage, generation, and transmission through telecommunications.

How did we get here? Fundamentally, technological advancement draws on existing science. Without an understanding of the nature of electromagnetism and the structure of atoms, we wouldn’t have electricity and the integrated circuitry that power computers. It was only a matter of time, then, before we thought of exploiting the most accurate, fundamental description of physical reality provided by quantum mechanics for computation.

Radiotherapy (also called radiation therapy), a commonly used cancer treatment that uses high-energy radiation, can effectively eliminate or shrink various types of tumors. While radiotherapy benefits many cancer patients, the associated side effects can hinder cancer survivors’ quality of life and overall health.

When a patient receives radiation treatments, the radiation damages the DNA. If the DNA damage becomes severe enough, the cancer cell will not recover and will stop dividing and die. Unfortunately, the exact mechanisms by which radiation elicits cancer cell death can cause similar damage in nearby healthy cells, leading to significant toxicities in some cases.

Many malignancies that develop in the pelvic region, including urinary and rectal cancers, are susceptible to pelvic radiotherapy. Some patients receiving pelvic radiotherapy develop debilitating bowel symptoms, including intestinal inflammation. Doctors do not fully understand these clinical challenges despite the common occurrence of bowel symptoms following pelvic radiotherapy. A better understanding of the link between radiation and bowel damage could help doctors manage cancer treatment more optimally, enhancing survivorship.

Desert-dwelling bacteria that feed on sunlight, slurp up carbon dioxide, and emit oxygen could be incorporated into paint that supplements the air in a habitat on Mars.

It’s called Chroococcidiopsis cubana, and scientists have developed a biocoating that emits measurable amounts of oxygen on a daily basis while reducing the amount of carbon dioxide in the air around it. This has implications, not just for space travel but here at home on Earth, too, according to a team led by microbiologist Simone Krings of the University of Surrey in the UK.

“With the increase in greenhouse gasses, particularly CO2, in the atmosphere and concerns about water shortages due to rising global temperatures, we need innovative, environmentally friendly, and sustainable materials,” says bacteriologist Suzie Hingley-Wilson of the University of Surrey.

Quantum mechanics is full of weird phenomena, but perhaps none as weird as the role measurement plays in the theory. Since a measurement tends to destroy the “quantumness” of a system, it seems to be the mysterious link between the quantum and classical world.

Furthermore, when dealing with a vast system of quantum data units called “qubits,” the impact of measurements can lead to profoundly different outcomes, even driving the emergence of entirely new phases of quantum information.

This happens when two competing effects come to a head: interactions and measurement. In a quantum system, when the qubits interact with one another, their information becomes shared nonlocally in an “entangled state.”

Congress is currently debating the FAA’s long-term reauthorization, which might have an impact on the ongoing use of leaded aviation fuel at smaller airports.


Serjio74/iStock.

Since 1980, the US has had a stunning 99 percent reduction in airborne lead levels as a result of EPA regulations. However, Leaded gas is still used in the aviation industry, according to a report published by EPA on Wednesday.

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Researchers from the Australian National University, the University of Oxford, and the Beijing Academy of Artificial Intelligence have developed a new AI system called “3D-GPT” that can generate 3D models simply from text-based descriptions provided by a user.

The system, described in a paper published on arXiv, offers a more efficient and intuitive way to create 3D assets compared to traditional 3D modeling workflows.

Amazon is always on the frontier of technological advancements, and in a recent move, the e-commerce giant announced its plans to deepen its collaboration with Agility Robotics. As part of their ongoing partnership, Amazon will commence tests using the bipedal robot, Digit, in its operations. This exciting development comes after Amazon’s strategic investment in Agility Robotics through the Amazon Industrial Innovation Fund.

For those unfamiliar with Digit, it’s a marvel of modern robotic engineering. Developed by Agility Robotics, Digit stands out with its unique bipedal design. It isn’t just any robot; it’s designed with two legs, allowing it to move and operate in human-like ways, making it exceptionally fit for environments crafted for humans. Equipped with advanced sensors like LIDAR, it perceives its surroundings and avoids obstacles with ease. Its arms are adept at maintaining balance, carrying objects, and interacting with various elements of its environment.

Amazon’s primary interest in Digit stems from its capacity to move, grasp, and handle items in the nooks and crannies of warehouses, offering innovative approaches to everyday operations. Specifically, the robot’s dimensions make it ideal for navigating spaces within buildings primarily designed for humans. Amazon foresees significant potential in scaling a mobile manipulator solution like Digit, particularly due to its collaborative nature. The robot is set to assist Amazon employees initially with tote recycling – a repetitive process involving the pickup and transportation of empty totes after their inventory has been fully picked.

Central to Amazon’s robotic initiatives is the collaborative nature of these systems. Amazon emphasizes that robots like Digit and Sequoia are designed to work in harmony with employees. Over the past decade, Amazon has integrated numerous robotic systems into its operations. Impressively, this technological adoption has not meant the reduction of its workforce. In fact, the company has introduced hundreds of thousands of new jobs in this period. Alongside the addition of robotic systems, Amazon has ushered in 700 new job categories, many of which are skilled roles that previously didn’t exist within the company.