Mole-bot, a drilling biomimetic robot designed by KAIST, boasts a stout scapula, a waist inclinable on all sides, and powerful forelimbs. Most of all, the powerful torque from the expandable drilling bit mimicking the chiseling ability of a mole's front teeth highlights the best feature of the drilling robot.
Mole-bot, a drilling biomimetic robot designed by KAIST, boasts a stout scapula, a waist inclinable on all sides, and powerful forelimbs. Most of all, the powerful torque from the expandable drilling bit mimicking the chiseling ability of a mole's front teeth highlights the best feature of the drilling robot.
S tudies show that the coronavirus that causes COVID-19 is readily destroyed when exposed to ultraviolet light and heat while on surfaces, such as countertops, chairs, walls and floors. This vulnerability sparked an idea in the mind of University of Virginia mechanical and aerospace engineering professor Tomonari Furukawa, who last year designed a roving robot to operate semi-autonomously in hazardous areas.
S tudies show that the coronavirus that causes COVID-19 is readily destroyed when exposed to ultraviolet light and heat while on surfaces, such as countertops, chairs, walls and floors. This vulnerability sparked an idea in the mind of University of Virginia mechanical and aerospace engineering professor Tomonari Furukawa, who last year designed a roving robot to operate semi-autonomously in hazardous areas.
Researchers at Konkuk University in South Korea recently created KUBeetle-S, a flying robot inspired by a species of horned beetle called Allomyrina dichotoma, which is among the largest insects on the planet. Allomyrina dichtoma weighs approximately 5 to 10 g and has a wing loading of 40 N/m2, which is remarkably high when compared to average insect wing loadings (typically around 8 N/m2).
An autonomous mobility system that works like a wheelchair without anyone pushing it is scuttling around a Tokyo airport to help with social distancing amid the coronavirus pandemic.
A scurrying robot dog named K9 dispenses hand sanitizer to curious children and wary shoppers—one of the more unexpected measures Thai malls are taking as the kingdom relaxes virus restrictions.
This itsy-bitsy robot can't climb up the waterspout yet but it can run, jump, carry heavy payloads and turn on a dime. Dubbed HAMR-JR, this microrobot developed by researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) and the Harvard Wyss Institute for Biologically Inspired Engineering, is a half-scale version of the cockroach-inspired Harvard Ambulatory Microrobot or HAMR.
Researchers at Seoul National University have recently developed a compact and lightweight origami structure inspired by ladybird beetles. In a paper published in Science Robotics they show how this structure can be used to build a winged jump-gliding robot. Jump-gliding is a specific locomotion style that combines gliding and jumping movements.
A robotic vacuum cleaner is easy to trust. We really need a lot more confidence in a robot that might be performing vital surgery on our body.
Researchers are working with a mobile robotic platform called Husky A200 that could be used for autonomous logistic tasks on construction sites. This mobile robot is one of many projects pursued by the Fraunhofer Italia Innovation Engineering Center to advance the cause of digitalization in construction and bridge the gap between robotics and the building industry. Researchers at this center based in Bolzano, Italy, are developing a software interface that will enable mobile robots to find their way around in construction sites.
A Malaysian university is considering using robots dressed in gowns and mortarboards to act as stand-ins at graduation ceremonies to prevent coronavirus infections—but students have blown a fuse at the idea.
Roboticists at the University of California San Diego have developed flexible feet that can help robots walk up to 40 percent faster on uneven terrain such as pebbles and wood chips. The work has applications for search-and-rescue missions as well as space exploration.
One of the hottest topics in robotics is the field of soft robots, which utilizes squishy and flexible materials rather than traditional rigid materials. But soft robots have been limited due to their lack of good sensing. A good robotic gripper needs to feel what it is touching (tactile sensing), and it needs to sense the positions of its fingers (proprioception). Such sensing has been missing from most soft robots.
A team of engineers have trained a robot to prepare an omelette, all the way from cracking the eggs to plating the finished dish, and refined the 'chef's' culinary skills to produce a reliable dish that actually tastes good.