Nanosized robots capable of crawling around on a person’s brain or underneath the skin may sound like a nightmare to some, but researchers suggest the mini machines could serve medical purposes such as gathering data on the brain or the spinal column.
According to an announcement from the University of Pittsburgh School of Medicine (Pitt), the Department of Defense has selected Pitt and neighboring Carnegie Mellon University (CMU) to create an autonomous trauma care system for injured soldiers. Under the so-called TRAuma Care In a Rucksack program or TRACIR, the universities will work to develop artificial intelligence (AI) platforms that enable medical interventions.
Defense Advanced Research Projects Agency (DARPA) officials will include a panel discussion on ethics and legal issues at the Artificial Intelligence (AI) Colloquium being held March 6-7 in Alexandria, Virginia.
“We’re looking at the ethical, legal and social implications of our technologies, particularly as they become powerful and democratized in a way,” reveals John Everett, deputy director of DARPA’s Information Innovation Office.
Amidst a great deal of hype, hope and even apprehension regarding artificial intelligence (AI), experts at the U.S. Defense Department’s premier research and development organization intend to help smart machines reach their full potential.
Endeavor Robotics Inc., Chelmsford, Massachusetts, was awarded a $32,400,000 firm-fixed-price contract for reset, sustainment, maintenance, and recap parts for Robot Logistics Support Center technicians to support the overall sustainment actions of the entire Endeavor family of small, medium, and large robots. Bids were solicited via the internet with one received. Work locations and funding will be determined with each order, with an estimated completion date of January 2, 2024. U.S. Army Contracting Command, Warren, Michigan, is the contracting activity (W56HZV-19-D-0031).
Robots that will equip the future U.S. Army will progress through an academic type of development that ultimately will have them graduate with full autonomy as equal partners with soldiers on the battlefield, if the Army Research Laboratory has its way. This learning regimen will allow them to grow into their roles as they mature from teleoperated machines to guided apprentices on their way to fully skilled battlefield operators that are teammates with warfighters.
A research team at the University of Texas at Arlington may one day cover robots and prosthetic devices with nanotechnology skin to provide them with a sense of touch far superior to humans.
A sense of touch could allow for greater precision and control. A robot needs to know, for example, how much pressure to apply when picking up an elderly patient from a bed, an airplane engine from a factory floor, or a glass of champagne from a tabletop.
In the decades to come, the U.S. military may manufacture combat parts and supplies on the battlefield using robots made of molecules all working together as part of a molecular factory. The nanoscale factories could revolutionize military logistics by eliminating the need to transport or store parts and supplies for every possible contingency. The same technology may prove useful for tying together strands of molecules for superstrong, lightweight armor.
The novelty of a robot joining warfighters on the battlefield has worn off, and the U.S. Marines are settling in to make their use of autonomous systems more effective. The service cannot afford to have robots that hinder operations, an expert says.
The Science and Technology Division of the Marine Corps Warfighting Laboratory is considering robotic systems that lighten cognitive or physical burdens for Marines. Researchers are advancing robotic or autonomous machines not just for the infantry but for medical and logistics units as well.
YouTube videos of robots running and jumping can be pretty persuasive as to what autonomous technologies can do. However, there is a large gap between robots’ locomotion and their ability to handle and move objects in their environment. Programs at the U.S. Naval Research Laboratory are examining how to close this capability gap and improve the functionality of robots and other autonomous systems.
Autonomous capabilities have advanced, especially in the last 10 years, but robots still have a hard time performing ad hoc motions, particularly manipulative movements using a robotic arm or hand, says Naval Research Laboratory (NRL) roboticist Glen Henshaw.
The U.S. Naval Research Laboratory’s (NRL’s) work on its Meso-scale Robotic Locomotion Initiative, known as MERLIN, is advancing, reports NRL roboticist Glen Henshaw. The shoebox-size quadruped robot, meant to weigh in at 10 kilograms (22 pounds), features hydraulic-based legs for running, jumping or climbing—to navigate environments too complicated for tracked or wheeled robots.
And after several years of development, MERLIN is almost walking, Henshaw says.
Researchers at Carnegie Mellon University’s School of Computer Science in Pittsburgh are examining how to create systems that can perform autonomously underwater and provide a clearer view of the subsurface environment. Such capabilities offer important applications to the U.S. services, the Navy, Coast Guard and Marines Corps, as well as to the commercial shipping industry for ship and harbor inspections, among other activities.
The past three decades have seen technologies rapidly transform the face of society. Robots, coupled with artificial intelligence, machine learning and other developing capabilities such as the Internet of Things (IoT), are among the latest technologies to offer the promise of labor-saving capabilities, improved efficiency in manufacturing, better precision in the medical field and enhanced capabilities in national security, to name just a few applications.
In the coming months, researchers from Georgia Tech will reveal the results of testing on a robot called the HoneyBot, designed to help detect, monitor, misdirect or even identify illegal network intruders. The device is built to attract cyber criminals targeting factories or other critical infrastructure facilities, and the underlying technology can be adapted to other types of systems, including the electric grid.
The HoneyBot represents a convergence of robotics with the cyber realm. The diminutive robot on four wheels essentially acts as a honeypot, or a decoy to lure criminal hackers and keep them busy long enough for cybersecurity experts to learn more about them, which ultimately could unmask the hackers.
Over the last decade, emergency responders have increasingly relied on robots to assist with public safety functions that may be too dangerous for humans. Autonomous systems can perform search and rescue tasks, provide decision support, transport medical supplies, extinguish fires, map disaster areas or accomplish other important rescue functions.
Researchers have developed an integrated fabrication process that for the very first time enables the design of soft robots on the millimeter scale with micrometer-scale features. To demonstrate the capabilities of their new technology, they created a robotic soft spider from a single elastic material with body-shaping, motion and color features.
The research team members are from Harvard University's Wyss Institute for Biologically Inspired Engineering, Harvard John A. Paulson School of Engineering and Applied Sciences, and Boston University. The study is published in Advanced Materials.
The Defense Advanced Research Projects Agency (DARPA) is moving into the first development phase of its OFFensive Swarm-Enabled Tactics (OFFSET) program, a capability that will empower dismounted troops to control scores of unmanned air and ground vehicles simultaneously. Once fully evolved, the technology will provide small-unit infantry forces with small, unmanned aircraft and ground systems to support diverse missions in urban areas. The program also seeks to integrate modern swarm tactics and leverage emerging technologies in swarm autonomy and human-swarm teaming.
The Army is pairing traditional weapons and vehicles with autonomous systems, an effort they characterize as the first step toward weaponized robotics. The goal is to be able to use robotic vehicles to leverage capabilities during enemy stand-offs.
Dubbed the ‘Wingman’ Joint Capability Technology Demonstration program or JCTD, the program already has seen success with Army engineers at the Detroit Arsenal, autonomously piloting a revamped Humvee that can accurately hit targets with a mounted 7.62 milometer weapon system, according to Sean Kimmons of the Army News Service.
Within five years, the Army would like to start testing remote combat vehicle (RCV) prototypes that are as light and as fast as a Stryker but provide the same level of firepower as an M-1 Abrams tank, according to a service press release.
While the holy grail is the Next Generation Combat Vehicle (NGCV), the Army thinks it can more quickly field a limited number of RCVs, and importantly, the results of that testing could help inform the requirements for the NGCV, which is slated for fielding in 2035.
Science fiction fans recognize Asimov’s prescient thoughts on robot programming, captured in his three laws of robotics. In Asimov’s sci-fi world, robots were all programmed to protect their humans (the first law), to obey their humans (the second law) and to protect themselves (the third law). These laws laid the foundation for many fantastic, futuristic stories and have long provided actionable concepts for today’s robots, including those we launch over our modern battlefields. As the stories advanced, he later added another law, called the “zeroth” law, which had priority over all the others, “A robot may not harm humanity, or, by inaction, allow humanity to come to harm.”