A battery-less RFID tag could do the job just as well as a GPS landing module. The researchers have further refined how the tag works.
A collaboration between researchers at The University of Tokyo and telecommunications company NTT in Japan has led to the development of a radio-frequency identification (RFID)-based guidance system for autonomous drones, a press release said.
The use of drones for civil applications has been on the rise and is expected to increase further as countries become more liberal with airspace to be used by autonomous flying vehicles. Conventionally, drones have relied on imaging to determine their location, but as piloting control moves toward the machine from humans,… More.
A new feat has been achieved in the realm of astronomy. The first supernova was observed, recognized, and classified using a wholly automated approach without human participation.
Led by Northwestern University, an international team of scientists has created a cutting-edge artificial intelligence (AI) tool known as the Bright Transient Survey Bot (BTSbot).
NASA/JPL-Caltech / D. Lang (Perimeter Institute)
The first supernova was observed, recognized, and classified using a wholly automated approach without human participation.
At HLTH, Mayo Clinic Platform President John Halamka gave a window into how his health system is mitigating generative AI risks. Some of the measures Mayo is taking include running analyses on how well algorithms perform across various subgroups and training models only on internal de-identified data.
As you might imagine for a scroll that has been buried under mounds of volcanic ash from Mount Vesuvius for close to 2,000 years, the rolled-up papyrus excavated from the ancient Roman city of Herculaneum is rather difficult to open, let alone read – but AI has found a way.
Scholars from the University of Kentucky launched the Vesuvius Challenge in March, releasing thousands of X-ray images of charred, carbonized Herculaneum scrolls together with untrained artificial intelligence software that could be used to interpret the scans.
Now two students have claimed the first prizes to be awarded: Luke Farritor, a computer science student at the University of Nebraska-Lincoln, and Youssef Nader, a biorobotics grad student at the Free University of Berlin in Germany.
Automation and sector-wide collaboration will be critical as developers try to move beyond the production challenges that slow growth of the cell and gene therapy sector. So says Julie G. Allickson, PhD, director of Mayo Clinic’s Center for Regenerative Biotherapeutics who argues that, despite considerable investment in infrastructure, production is still the biggest challenge.
“Both industry and academia are challenged by the lack of manufacturing capacity for cell and gene therapies,” she says, citing plasmid production and viral vector production as examples. “Besides these issues, the scalability of production processes can be difficult, especially when coupled to individually expanded cells. When looking at the patient cells variability, quantity and quality of cells is critical to ensure consistency in the product delivered to the patient,” she says.
The Collective Intelligence of Cells During Morphogenesis: What Bioelectricity Outside the Brain Means for Understanding our Multiscale Nature with Michael Levin — Incredible Minds.
Recorded: April 29, 2023.
Each of us takes a remarkable journey from physics to mind: we start as a blob of chemicals in an unfertilized quiescent oocyte and becomes a complex, metacognitive human being. The continuous process of transformation and emergence that we see in developmental biology reminds us that we are true collective intelligences – composed of cells which used to be individual organisms themselves. In this talk, I will describe our work on understanding how the competencies of single cells are harnessed to solve problems in anatomical space, and how evolution pivoted this scaling of intelligence into the familiar forms of cognition in the nervous system. We will talk about diverse intelligence in novel embodiments, the scaling of the cognitive light cone of all beings, and the role of developmental bioelectricity as a cognitive glue and as the interface by which mind controls matter in the body. I will also show a new synthetic life form, and discuss what it means for bioengineering and ethics of human relationships to the wider world of possible beings. We will discuss the implications of these ideas for understanding evolution, and the applications we have developed in birth defects, cancer, and traumatic injury repair. By merging deep ideas from developmental biophysics, computer science, and cognitive science, we not only get a new perspective on fundamental questions of life and mind, but also new roadmaps in regenerative medicine, biorobotics, and AI.
Michael Levin received dual undergraduate degrees in computer science and biology, followed by a PhD in molecular genetics from Harvard. He did his post-doctoral training at Harvard Medical School, and started his independent lab in 2000. He is currently the Vannevar Bush chair at Tufts University, and an associate faculty member of the Wyss Institute at Harvard. He serves as the founding director of the Allen Discovery Center at Tufts. His lab uses a mix of developmental biophysics, computer science, and behavior science to understand the emergence of mind in unconventional embodiments at all scales, and to develop interventions in regenerative medicine and applications in synthetic bioengineering. They can be found at www.drmichaellevin.org/
Starlink satellites will soon be offering Direct to Cell capabilities to enable texting, calling, and browsing everywhere on Earth. SpaceX will start satellite-based text messaging in 2024 and expand to voice and text support in 2025. They will offer cellular connectivity to IoT devices in 2025. The service will work with existing LTE phones without the need for any hardware, firmware changes, or special apps.
Direct to Cell will also connect IoT devices with common LTE standards. SpaceX plans to equip its future Starlink satellites with an advanced eNodeB modem. This innovation will essentially transform a Starlink satellite into a cellphone tower in space.
This will be enabled by tens of thousands of satellites and eventually millions of satellites will replace most of the 5 million cell towers on Earth. It will means everyone and everything can be connected. All people, robots, and self driving vehicles will be connected.
