<html><head></head><body>Unlock unlimited sports potential (Extra large joint movement space angle, 23~43 joints) Force control of dexterous hands, manipulation of all thingsImitation &amp; reinforcement learning driven Robot world model, let’s create it together Unitree G1 Price from $16K (Tax and Shipping cost excluded)More introduction:&nbsp;<a tabindex="0" href="https://www.youtube.com/redirect?event=video_description&amp;redir_token=QUFFLUhqbFpMZ0ZSV05IaDdTbEZuQnlFN1B3cDgzbnY0d3xBQ3Jtc0trTXhubEF2aWpndUhNLUFQajBBdmJObEFrRmZlcWdEdTN3dm1Fdzd0LUhGeVhxRF9HUUYwdl9NM2x5UnplTlYtR05zdkxSdUhvUk0zNktiWGhvdlpkNHhpazlUOVhpNHk5dmI3cEJRWWI2U3JQWEttTQ&amp;q=https%3A%2F%2Fwww.unitree.com%2Fg1&amp;v=GzX1qOIO1bE" rel="nofollow" target="_blank" data-immersive-translate-walked="fad7c807-08d6-4a00-ad03-0c3b7086529c">https://www.unitree.com/g1</a>Official Website: www.unitree.com&nbsp;Sales contact: sales_global@unitree.cc</body></html>

AI Avatar  Price from $16K

Unitree Introducing  Unitree G1 Humanoid Agent

720° Spin Kick - Hear the Impact! Kung Fu BOT Gameplay RAW. (No Speed-Up) (Do not imitate, please keep a safe distance from the machine)

720° Spin Kick - Hear the Impact! Kung Fu BOT Gameplay RAW. (No Speed-Up) 
(Do not imitate, please keep a safe distance from the machine)

Kungfu BOT GAME

We have continued to upgrade the Unitree G1's algorithm, enabling it to learn and perform virtually any movement. What other moves would you like to see. Do share with us in the comments. (Please keep a safe distance from the robot.)

We have continued to upgrade the Unitree G1's algorithm, enabling it to learn and perform virtually any movement.What other moves would you like to see. Do share with us in the comments. (Please keep a safe distance from the robot.)

Kungfu BOT: Unitree G1

<h2 id="isPasted">What Dance Would You Like to Perform with Unitree G1?</h2>With the upgraded algorithm, G1 can learn any dance. Leave a comment to tell us what dance you'd like to see！

With the upgraded algorithm, G1 can learn any dance. Leave a comment to tell us what dance you'd like to see！

What Dance Would You Like to Perform with Unitree G1?

Hello everyone, let me introduce myself again. I am Unitree H1 "Fuxi".&nbsp;I am now a comedian at the Spring Festival Gala, hoping to bring joy to everyone.&nbsp;Let’s push boundaries every day and shape the future together.A little surprise: the handkerchief can not only spin but can also be thrown out and automatically returned to its position.<img src="https://images.wevolver.com/eyJidWNrZXQiOiJ3ZXZvbHZlci1wcm9qZWN0LWltYWdlcyIsImtleSI6ImZyb2FsYS8xNzM4MDc3NzEzOTI3LeW+ruS/oeWbvueJh18yMDI1MDEyODIzMDMzNy5qcGciLCJlZGl0cyI6eyJyZXNpemUiOnsid2lkdGgiOjk1MCwiZml0IjoiY292ZXIifX19" style="width: 100%px;" class="fr-fic fr-dib">

Debut at the Spring Festival Gala

Unitree H1: Humanoid Robot Makes Its Debut at the Spring Festival Gala

Unitree H1&nbsp;Deep Reinforcement Learning&nbsp;In-place Flipping Parameters:&nbsp;Weight: about 50kg&nbsp;Height: about 1.8m&nbsp;Actuator: electric motor

Deep Reinforcement Learning

Unitree H1

Unitree G1 Bionic: Agile Upgrade

With the majority of spine surgeons experiencing bodily discomfort due to their work, the need for ergonomic improvements in the healthcare industry is clear. Orthopedic spine surgeon Philip Louie is on a mission to address this issue, leveraging&nbsp;<a href="https://www.movella.com/products/motion-capture" target="_blank" rel="noopener noreferrer">Xsens motion capture</a>&nbsp;technology and Scalefit software to identify pain points and create solutions that enhance surgeons’ physical well-being and long-term performance.Challenge:&nbsp;To effectively analyze surgeons’ occupational health and safety, healthcare professional Philip Louie needed an objective dataset to define specific problem areas.Solution:&nbsp;Using the Xsens inertial motion capture and <a href="https://www.movella.com/integrations/scalefit" target="_blank" rel="noopener noreferrer">Scalefit&nbsp;</a>software provided highly accurate data on the surgeons’ movements, all while maintaining privacy for themselves and their patients.Key takeaways:<ul><li id="isPasted" style="font-weight: bold;">Advanced data accuracy for ergonomic assessment: inertial motion capture records even the smallest movements, ensuring precise analysis</li><li style="font-weight: bold;">Ensuring privacy: Camera-less technology guarantees anonymity for both patients and surgeons</li><li>Authentic movement thanks to unobtrusive technology: comfortable wearables allow ergonomic professionals to track real, natural motion</li></ul>An overwhelming 80% of spine surgeons experience bodily discomfort. This high proportion shows a need for occupational health and safety to be prioritized within the healthcare industry. Such injuries can lead to unexpected time off, declining performance, or even early retirement. <a href="https://www.linkedin.com/in/philip-louie-1605807/" target="_blank" rel="noopener noreferrer">Orthopedic spine surgeon Philip Louie</a> is conducting a study to find out how to improve surgeons’ physical well-being to make their highly technical job that little bit easier.Stopping spine surgeon injuries“The majority of healthcare professionals experience some sort of bodily discomfort due to their job,” explains Philip. “So the first part of our study was to find the physical pain points of spine surgeons.” After completing a series of intense surgeries, Philip noticed the harmful impact and the role it had on his joints and muscles.However, Philip was not the only surgeon experiencing these issues. He started the study to show that physical well-being is a profession-wide issue, not just a personal one, and with this information, hopes to build more ergonomically friendly surgery rooms. To effectively demonstrate his point, he needed objective data that put a spotlight on the exact areas for improvement in the healthcare industry.Preparing for researchPhilip decided to perform ergonomic analyses on three surgeons, each performing the same procedure ten times. “Using replicable surgeries as the basis for the study was crucial,” he says. “It allowed us to compare and contrast each dataset to identify outlying issues.” Philip then researched the different techniques for assessing occupational health and safety.“For the first attempt, we used the REBA method,” explains Philip. REBA (rapid entire body analysis) requires an ergonomics analyst to manually assess the worker’s movements, using their knowledge of physical well-being to point out issues and suggest amendments. “We found that while this was useful, we didn’t have the quantitative, set-in-stone data needed for this project.”&nbsp;An extra person in the surgery room also led to privacy issues for both patient and surgeon. Most would be uncomfortable having their work, or personal procedures, observed by a third party. Filming would also create an anonymity issue, leading to faces having to be blurred and time taken away from the investigation. After extensive research, Philip found the answer to anonymity while further improving the quality of data.Using Xsens and Scalefit technology“When we found inertial motion capture, we knew that it was the only way to efficiently carry out our research without encroaching on the privacy of others,” says Philip. Using inertial technology, the Xsens motion capture system tracks velocity, acceleration, and rotation without requiring any cameras. Instead, the data is sent directly from the wearables to post-processing software.“I was able to perform a two-hour surgery while wearing the Xsens system,” Philip continues. “By the end, myself and the other surgeons forgot we were even wearing it.” The Awinda set contains 17 wireless sensors, all individually strapped to the body for bespoke comfort. The team could also maintain a sterile environment, with the sensors tucked underneath scrubs.Using the Xsens motion data and Scalefit software, Philip could effectively collate his results to show objective findings, pinpointing the need for ergonomic improvement in the surgery room. The research team quantified this data to highlight the specific areas of a surgeon’s body that were most affected by their job. Having this abundance of data instantly available for research was essential for rapidly progressing the project.Looking aheadErgonomic analysis is best carried out in a worker’s natural environment, doing the tasks they would do every day, and Xsens allows you to do just that. “I hope to roll out this technique to the rest of the healthcare industry,” says Philip. “Its usefulness was invaluable to us, and it can help many other professionals perform their jobs more safely.”Philip’s research project is drawing to a close, and the last rounds of motion capture data are being recorded. He hopes to create tangible solutions for spine surgeons, with his ability to identify exact pain points and put together a plan to prevent them from happening, such as full-body exercises to relieve tension from the back, shoulders, wrists, and other vulnerable joints.&nbsp;Just wearing the Xsens suit raised awareness for the toll surgery takes on medical professionals. Philip could see in real time how his body was reacting to holding it in a fixed position, encouraging him to relax and avoid experiencing unnecessary pain.“Inertial motion capture technology was the only solution for this project,” concludes Philip. “Having this quantitative data is invaluable to our occupational health and safety.

With Xsens MVN Analyze

Ergonomic analysis for spine surgeons: saving your back and neck

Unitree B2 continues to evolve every day with the acceleration of AI. Is there a limit to its evolution? More introduction: www.unitree.com/b2The fastest industrial quadruped robot with a speed of 6m/s.Excellent terrain adaptability, ensuring stable driving on slippery or uneven surfaces.Excellent continuous stair climbing ability, easy to handle steps.170% increase in joint performance with 360 N.m of torque. Extreme performance provids greater flexibility and stability for industrial operations.Overcoming obstacles. Stable and tough. Superior obstacle-crossing ability, easy to cross the mess of wood piles, 40cm high platforms and other obstacles.100% increase in sustained load 200% increase in endurance.

Unitree B2 continues to evolve every day with the acceleration of AI. Is there a limit to its evolution?

Unitree B2 has evolved once again, is there an end?

In this episode, we explore an innovative prosthesis driven by the nervous system that helps people with amputations walk naturally and discover how this cutting-edge technology is transforming mobility and enhancing the quality of life for amputees by restoring a natural gait.

Podcast: Bionics Help Amputees Take Big Strides Forward

This article was discussed in our <a href="https://www.wevolver.com/profile/the.next.byte" rel="noopener noreferrer" target="_blank">Next Byte podcast</a>.&nbsp;<iframe height="200px" width="100%" frameborder="no" scrolling="no" seamless="" src="https://player.simplecast.com/ceb16e69-0075-4e23-97b8-f679ee5b172e?dark=false" class="fr-draggable" data-gtm-yt-inspected-24="true" data-lf-form-tracking-inspected-kn9eq4roawkarlvp="true" data-lf-yt-playback-inspected-kn9eq4roawkarlvp="true" data-lf-vimeo-playback-inspected-kn9eq4roawkarlvp="true"></iframe> The full article will continue below.<hr>State-of-the-art prosthetic limbs can help people with amputations achieve a natural walking gait, but they don’t give the user full neural control over the limb. Instead, they rely on robotic sensors and controllers that move the limb using predefined gait algorithms.Using a new type of surgical intervention and neuroprosthetic interface, MIT researchers, in collaboration with colleagues from Brigham and Women’s Hospital, have shown that a natural walking gait is achievable using a prosthetic leg fully driven by the body’s own nervous system. The surgical amputation procedure reconnects muscles in the residual limb, which allows patients to receive “proprioceptive” feedback about where their prosthetic limb is in space.In a study of seven patients who had this surgery, the MIT team found that they were able to walk faster, avoid obstacles, and climb stairs much more naturally than people with a traditional amputation.<iframe width="640" height="360" src="https://www.youtube.com/embed/fKdnu50Nx-8?&amp;wmode=opaque&amp;rel=0&amp;enablejsapi=1&amp;origin=https://www.wevolver.com" frameborder="0" allowfullscreen="" class="fr-draggable" data-lf-form-tracking-inspected-kn9eq4roawkarlvp="true" data-lf-yt-playback-inspected-kn9eq4roawkarlvp="true" data-lf-vimeo-playback-inspected-kn9eq4roawkarlvp="true" data-gtm-yt-inspected-24="true" id="651131305" title="Helping people with amputation walk naturally">&nbsp;</iframe>“This is the first prosthetic study in history that shows a leg prosthesis under full neural modulation, where a biomimetic gait emerges.&nbsp;No one has been able to show this level of brain control that produces a natural gait, where the human’s nervous system is controlling the movement, not a robotic control algorithm,” says Hugh Herr,&nbsp;a professor of media arts and sciences, co-director of the K. Lisa Yang Center for Bionics at MIT, an associate member of MIT’s McGovern Institute for Brain Research, and the senior author of the new study.Patients also experienced less pain and less muscle atrophy following this surgery, which is known as the agonist-antagonist myoneural interface (AMI). So far, about 60 patients around the world have received this type of surgery, which can also be done for people with arm amputations.Hyungeun Song, a postdoc in MIT’s Media Lab, is the lead author of the <a href="https://www.nature.com/articles/s41591-024-02994-9" target="_blank">paper</a>, which appears today in Nature Medicine.<h2>Sensory feedback</h2>Most limb movement is controlled by pairs of muscles that take turns stretching and contracting. During a traditional below-the-knee amputation, the interactions of these paired muscles are disrupted. This makes it very difficult for the nervous system to sense the position of a muscle and how fast it’s contracting — sensory information that is critical for the brain to decide how to move the limb.People with this kind of amputation may have trouble controlling their prosthetic limb because they can’t accurately sense where the limb is in space. Instead, they rely on robotic controllers built into the prosthetic limb. These limbs also include sensors that can detect and adjust to slopes and obstacles.To try to help people achieve a natural gait under full nervous system control, Herr and his colleagues began developing the AMI surgery several years ago. Instead of severing natural agonist-antagonist muscle interactions, they connect the two ends of the muscles so that they still dynamically communicate with each other within the residual limb. This surgery can be done during a primary amputation, or the muscles can be reconnected after the initial amputation as part of a revision procedure.“With the AMI amputation procedure, to the greatest extent possible, we attempt to connect native agonists to native antagonists in a physiological way so that after amputation, a person can move their full phantom limb with physiologic levels of proprioception and range of movement,” Herr says.In a 2021 <a href="https://news.mit.edu/2021/surgery-control-prosthetic-limbs-0215" target="_blank">study</a>, Herr’s lab found that patients who had this surgery were able to more precisely control the muscles of their amputated limb, and that those muscles produced electrical signals similar to those from their intact limb.After those encouraging results, the researchers set out to explore whether those electrical signals could generate commands for a prosthetic limb and at the same time give the user feedback about the limb’s position in space. The person wearing the prosthetic limb could then use that proprioceptive feedback to volitionally adjust their gait as needed.In the new Nature Medicine study, the MIT team found this sensory feedback did indeed translate into a smooth, near-natural ability to walk and navigate obstacles.“Because of the AMI neuroprosthetic interface, we were able to boost that neural signaling, preserving as much as we could. This was able to restore a person's neural capability to continuously and directly control the full gait, across different walking speeds, stairs, slopes, even going over obstacles,” Song says.<h2>A natural gait</h2>For this study, the researchers compared seven people who had the AMI surgery with seven who had traditional below-the-knee amputations. All of the subjects used the same type of bionic limb: a prosthesis with a powered ankle as well as electrodes that can sense electromyography (EMG) signals from the tibialis anterior the gastrocnemius muscles. These signals are fed into a robotic controller that helps the prosthesis calculate how much to bend the ankle, how much torque to apply, or how much power to deliver.The researchers tested the subjects in several different situations: level-ground walking across a 10-meter pathway, walking up a slope, walking down a ramp, walking up and down stairs, and walking on a level surface while avoiding obstacles.In all of these tasks, the people with the AMI neuroprosthetic interface were able to walk faster — at about the same rate as people without amputations — and navigate around obstacles more easily. They also showed more natural movements, such as pointing the toes of the prosthesis upward while going up stairs or stepping over an obstacle, and they were better able to coordinate the movements of their prosthetic limb and their intact limb. They were also able to push off the ground with the same amount of force as someone without an amputation.“With the AMI cohort, we saw natural biomimetic behaviors emerge,” Herr says.&nbsp;“The cohort that didn’t have the AMI, they were able to walk, but the prosthetic movements weren’t natural, and their movements were generally slower.”These natural behaviors emerged even though the amount of sensory feedback provided by the AMI was less than 20 percent of what would normally be received in people without an amputation.“One of the main findings here is that a small increase in neural feedback from your amputated limb can restore significant bionic neural controllability, to a point where you allow people to directly neurally control the speed of walking, adapt to different terrain, and avoid obstacles,” Song says.“This work represents yet another step in us demonstrating what is possible in terms of restoring function in patients who suffer from severe limb injury. It is through collaborative efforts such as this that we are able to make transformational progress in patient care,” says Matthew Carty, a surgeon at Brigham and Women’s Hospital and associate professor at Harvard Medical School, who is also an author of the paper.Enabling neural control by the person using the limb is a step toward Herr’s lab’s goal of “rebuilding human bodies,” rather than having people rely on ever more sophisticated robotic controllers and sensors — tools that are powerful but do not feel like part of the user’s body.“The problem with that long-term approach is that the user would never feel embodied with their prosthesis. They would never view the prosthesis as part of their body, part of self,” Herr says. “The approach we’re taking is trying to comprehensively connect the brain of the human to the electromechanics.”The research was funded by the MIT K. Lisa Yang Center for Bionics and the Eunice Kennedy Shriver National Institute of Child Health and Human Development.<img src="https://images.wevolver.com/eyJidWNrZXQiOiJ3ZXZvbHZlci1wcm9qZWN0LWltYWdlcyIsImtleSI6ImZyb2FsYS8xNzIwNDIzMTQxODg1LV9NR185NjE2LTMuanBnIiwiZWRpdHMiOnsicmVzaXplIjp7IndpZHRoIjo5NTAsImZpdCI6ImNvdmVyIn19fQ==" style="width: 100%px;" class="fr-fic fr-dib">Credit: Jimmy Day, MIT Media Lab

“This is the first prosthetic study in history that shows a leg prosthesis under full neural modulation,” Hugh Herr says. Image: Courtesy of Hugh Herr and Hyungeun Song

A new surgical procedure gives people more neural feedback from their residual limb. With it, seven patients walked more naturally and navigated obstacles.

A prosthesis driven by the nervous system helps people with amputation walk naturally

In this episode, we discuss how CalTech researchers have created bionic jellyfish to help us explore the oceans and better understand the impacts of climate change.

Podcast: Jellyfish Cyborgs Help Explore The Oceans & Solve Climate Change

This article was discussed in our <a href="https://www.wevolver.com/profile/the.next.byte" rel="noopener noreferrer" target="_blank">Next Byte podcast</a>.&nbsp;<iframe height="200px" width="100%" frameborder="no" scrolling="no" seamless="" src="https://player.simplecast.com/18c9c9fd-d774-46bc-87b8-fb1b0e7a5ae4?dark=false" class="fr-draggable" data-gtm-yt-inspected-9="true" data-lf-form-tracking-inspected-kn9eq4roawkarlvp="true" data-lf-yt-playback-inspected-kn9eq4roawkarlvp="true" data-lf-vimeo-playback-inspected-kn9eq4roawkarlvp="true"></iframe> The full article will continue below.<hr>Jellyfish can't do much besides swim, sting, eat, and breed. They don't even have brains. Yet, these simple creatures can easily journey to the depths of the oceans in a way that humans, despite all our sophistication, cannot.But what if humans could have jellyfish explore the oceans on our behalf, reporting back what they find? New research conducted at Caltech aims to make that a reality through the creation of what researchers call biohybrid robotic jellyfish. These creatures, which can be thought of as ocean-going cyborgs, augment jellyfish with electronics that enhance their swimming and a prosthetic "hat" that can carry a small payload while also making the jellyfish swim in a more streamlined manner.The work, published in the journal Bioinspiration &amp; Biomimetics, was conducted in the lab of John Dabiri (MS '03, PhD '05), the Centennial Professor of Aeronautics and Mechanical Engineering, and builds on his previous work augmenting jellyfish. Dabiri's goal with this research is to use jellyfish as robotic data-gatherers, sending them into the oceans to collect information about temperature, salinity, and oxygen levels, all of which are affected by Earth's changing climate."It's well known that the ocean is critical for determining our present and future climate on land, and yet, we still know surprisingly little about the ocean, especially away from the surface," Dabiri says. "Our goal is to finally move that needle by taking an unconventional approach inspired by one of the few animals that already successfully explores the entire ocean."<iframe width="640" height="360" src="https://www.youtube.com/embed/_ZfthP_7s5g?&amp;wmode=opaque&amp;rel=0&amp;enablejsapi=1&amp;origin=https://www.wevolver.com" frameborder="0" allowfullscreen="" class="fr-draggable" data-lf-form-tracking-inspected-kn9eq4roawkarlvp="true" data-lf-yt-playback-inspected-kn9eq4roawkarlvp="true" data-lf-vimeo-playback-inspected-kn9eq4roawkarlvp="true" data-gtm-yt-inspected-9="true" id="779481107" title="Robotic Jellyfish Explorers">&nbsp;</iframe>Media assets: Robotic Jellyfish ExplorersThroughout his career, Dabiri has looked to the natural world, jellyfish included, for inspiration in solving engineering challenges. This work began with early attempts by Dabiri's lab to develop a mechanical robot that swam like jellyfish, which have the most efficient method for traveling through water of any living creature. Though his research team succeeded in creating such a robot, that robot was never able to swim as efficiently as a real jellyfish. At that point, Dabiri asked himself, why not just work with jellyfish themselves?"Jellyfish are the original ocean explorers, reaching its deepest corners and thriving just as well in tropical or polar waters," Dabiri says. "Since they don't have a brain or the ability to sense pain, we've been able to collaborate with bioethicists to develop this biohybrid robotic application in a way that's ethically principled."Previously, Dabiri's lab implanted jellyfish with a kind of electronic pacemaker that controls the speed at which they swim. In doing so, they found that if they made jellyfish swim faster than the leisurely pace they normally keep, the animals became even more efficient. A jellyfish swimming three times faster than it normally would uses only twice as much energy.This time, the research team went a step further, adding what they call a forebody to the jellies. These forebodies are like hats that sit atop the jellyfish's bell (the mushroom-shaped part of the animal). The devices were designed by graduate student and lead author Simon Anuszczyk (MS '22), who aimed to make the jellyfish more streamlined while also providing a place where sensors and other electronics can be carried."Much like the pointed end of an arrow, we designed 3D-printed forebodies to streamline the bell of the jellyfish robot, reduce drag, and increase swimming performance," Anuszczyk says. "At the same time, we experimented with 3D printing until we were able to carefully balance the buoyancy and keep the jellyfish swimming vertically."To test the augmented jellies' swimming abilities, Dabiri's lab undertook the construction of a massive vertical aquarium inside Caltech's Guggenheim Laboratory. Dabiri explains that the three-story tank is tall, rather than wide, because researchers want to gather data on oceanic conditions far below the surface."In the ocean, the round trip from the surface down to several thousand meters will take a few days for the jellyfish, so we wanted to develop a facility to study that process in the lab," Dabiri says. "Our vertical tank lets the animals swim against a flowing vertical current, like a treadmill for swimmers. We expect the unique scale of the facility—probably the first vertical water treadmill of its kind—to be useful for a variety of other basic and applied research questions."<img src="https://images.wevolver.com/eyJidWNrZXQiOiJ3ZXZvbHZlci1wcm9qZWN0LWltYWdlcyIsImtleSI6ImZyb2FsYS8xNzA5NTIxNzc5NzI4LURhYmlyaS1MYWItTG9uZy1EaXN0YW5jZS1Td2ltbWluZ19Gb3JlYm9keTMubWF4LTE0MDB4ODAwLmpwZyIsImVkaXRzIjp7InJlc2l6ZSI6eyJ3aWR0aCI6OTUwLCJmaXQiOiJjb3ZlciJ9fX0=" style="width: 100%px;" class="fr-fic fr-dib">A biohybrid jellyfish descends through the three-story tank in which swimming tests were conducted. Credit: CaltechSwim tests conducted in the tank show that a jellyfish equipped with a combination of the swimming pacemaker and forebody can swim up to 4.5 times faster than an all-natural jelly while carrying a payload. The total cost is about $20 per jellyfish, Dabiri says, which makes biohybrid jellies an attractive alternative to renting a research vessel that can cost more than $50,000 a day to run."By using the jellyfish's natural capacity to withstand extreme pressures in the deep ocean and their ability to power themselves by feeding, our engineering challenge is a lot more manageable," Dabiri adds. "We still need to design the sensor package to withstand the same crushing pressures, but that device is smaller than a softball, making it much easier to design than a full submarine vehicle operating at those depths."I'm really excited to see what we can learn by simply observing these parts of the ocean for the very first time," he adds.Dabiri says future work may focus on further enhancing the bionic jellies' abilities. Right now, they can only be made to swim faster in a straight line, such as the vertical paths being designed for deep ocean measurement. But further research may also make them steerable, so they can be directed horizontally as well as vertically.The paper describing the work, "<a href="https://iopscience.iop.org/article/10.1088/1748-3190/ad277f" target="_blank">Electromechanical enhancement of live jellyfish for ocean exploration</a>," appears in the February 28 issue of Bioinspiration &amp; Biomimetics. Co-authors are Anuszczyk and Dabiri.

Jellyfish can't do much besides swim, sting, eat, and breed. They don't even have brains. Yet, these simple creatures can easily journey to the depths of the oceans in a way that humans, despite all our sophistication, cannot.

Building Bionic Jellyfish for Ocean Exploration

In this episode, we discuss the accidental discovery of how amputees can sense temperature in their phantom limbs and how EPFL researchers have exploited this to develop the first generation of prosthetics that can feel.

Podcast: Amputees Feel Warmth In Their Missing Hand

<h2 dir="ltr" id="isPasted">Tried and tested (and free)</h2>Biomimetics is the method by which scientists borrow successful ideas from nature to use in their own inventions. The advantage of this approach is that the solutions found among animals and plants are not subject to any patent. And over countless millennia, there are certain structures and mechanisms in nature that have allowed all sorts of living things to survive in various conditions. Thus, developers can rely on nature&rsquo;s best ideas, modify them as needed, and create robots that resemble beings we&rsquo;re already familiar with.<blockquote>&ldquo;For instance, there&rsquo;s a German company named Festo that specializes in various biomimetic solutions. They have a kangaroo robot that, just like the real thing, conserves energy after a jump and uses it for the next one. There are other notable inventions: the well-known Spot robot-dogs, worm-like medical robots, or even drug delivery bots modeled after fish. Some specialists develop mechanisms based on plant life &ndash; plantoids. But that&rsquo;s still a work in progress and it&rsquo;ll be some time before you can buy one in a store,&rdquo; explains Pavel Kovalenko, an associate professor at the Faculty of Control Systems and Robotics.</blockquote><h2 dir="ltr" id="isPasted">More ground to cover</h2>Nevertheless, the biomimetic method suffers from several limitations. Firstly, scientists have not been successful in recreating the principles or developing materials that would allow them to fully replicate certain species. Take geckos: these lizards&rsquo; paws are covered with microscopic adhesive hairs that can stick to any smooth vertical surface and traverse it. But researchers are yet to create a similar technology that would be suitable for industrial production.<blockquote>&ldquo;When we try to create the same product using nanolithography, the hairs come out different: not splayed like they should be, but rather conical or simply crudely shaped. Because of this, the adhesion is not adequate. In addition, artificial materials cannot self-clean and, therefore, lose their stickiness. It&rsquo;s like a piece of duct tape that you apply and tear off again and again,&rdquo; says Pavel Kovalenko.</blockquote>The second limitation of biomimetics is the scalability of natural mechanisms: as a rule, the ideas used at nanoscale are not always reproducible in macroscale. This forces researchers to look for other solutions to applied problems. For instance, instead of a robotic gecko, they will also create a snail that can climb vertical surfaces.Last but not least, for robots to function as animals, researchers have to truly synchronize their control system, its components, and parts of the robot. According to Pavel Kovalenko, this can be achieved when both the software and the engineering aspects of the robot are developed by a single team with a clear view of their final outcome.&nbsp;<h2 dir="ltr" id="isPasted">A robotic zoo at ITMO</h2>Despite all these challenges, students and graduates of ITMO&rsquo;s Faculty of Control Systems and Robotics are actively engaged in biomimetics, having already completed several stages of their research. First, they analyzed the behavior, body structure and functions of living organisms, and then based on this step decided which body parts they should recreate in their work. They have also selected flexible materials resembling existing animals. At the next stage, the researchers performed calculations, chose the digital components and motors for the robot, and developed the necessary software. As a result, they have already created several model robotic animals.For instance, ITMO graduate Georgy Larionenko developed a waterproof robotic fish with a moving tail that works on two magnets. A servomotor inside the waterproof body activates the first magnet, which in its turn activates the second one that is connected to the fluke. This way, by moving its tail in the water, the robotic fish can swim &ndash; both in fresh and salty water, as experiments have shown. The robot can be useful for gauging the parameters of the water and the ocean floor in various conditions, including in the arctic region.&nbsp;<iframe src="https://www.youtube.com/embed/fYqbsCFRuS0?&wmode=opaque&rel=0&enablejsapi=1&origin=https://www.wevolver.com" frameborder="0" allowfullscreen="" class="fr-draggable" data-lf-form-tracking-inspected-kn9eq4roawkarlvp="true" data-lf-yt-playback-inspected-kn9eq4roawkarlvp="true" style="width: 768px; height: 429px;"></iframe>A team of three graduates, Oksana Shuraeva, Anastasia Yusupova, and Anton Kovalenko, has developed a robotic snail. It can crawl down inclined surfaces by intermittently extending and retracting its &ldquo;paws,&rdquo; two spirals with plates attached to them. In order to guide the robot in the necessary direction, a servomotor, located in its shell, positions the snail&rsquo;s head at the needed angle, so that the rest of its body can follow suit. One application of this invention is window cleaning &ndash; the snail will leave a trail of detergent behind.Elizaveta Shelukhina, another ITMO graduate, wanted to make a device that will be protected from its environment. She could take inspiration from several animals, including turtles, hedgehogs, and armadillos, but eventually decided to settle on the latter, creating the concept for robotic armadillo. When the robot senses that something is falling on it or if someone kicks it, it rolls into a ball to protect its silicon insides. When the external influence ends, the robot unrolls back into its full length. Such robotic armadillos can come in handy in rescue missions, when there is a high risk of buildings collapsing.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1665655602540-1282503.jpg" style="width: 766px;" class="fr-fic fr-dib">Robotic snail. Image courtesy of the Faculty of Control Systems and Robotics&nbsp;<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1665655652013-1282504.jpg" style="width: 766px;" class="fr-fic fr-dib">The snail&rsquo;s locomotion mechanism includes two spirals with plates attached to them. The spirals are activated by two D41AB12 DC motors and when climbing an inclined surface the snail&rsquo;s front part is controlled by an FS5106B servomotor. Image courtesy of the Faculty of Control Systems and Robotics&nbsp; &nbsp;<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1665655682130-1282501.jpg" style="width: 766px;" class="fr-fic fr-dib">The concept of a protected armadillo robot developed by Elizaveta Shelukhina. When hit by something, the robot rolls into a ball to protect its insides. Photo by Dmitry Grigoryev, ITMO.NEWS&nbsp; &nbsp;<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1665655703530-1282502.jpg" style="width: 766px;" class="fr-fic fr-dib">The robotic fish presented at the Robotex youth robotics contect. Image courtesy of the Faculty of Control Systems and Robotics&nbsp; &nbsp;These days, students at the faculty are also developing various robotic animals. For example, Maged Mohamed, a second-year student in the Robotics and Artificial Intelligence Master&rsquo;s program, researches biomimetics to come up with his own prototype of a waterproof fish that will also resist the pressure deep underwater to collect samples of the bottom and water for analysis.&nbsp;<hr>Translated by&nbsp;<a data-saferedirecturl="https://www.google.com/url?q=https://news.itmo.ru/en/profile/30/&source=gmail&ust=1665742142569000&usg=AOvVaw3TxK7CnbdCJBWzW22ae5a2" href="https://news.itmo.ru/en/profile/30/" id="isPasted" rel="noopener noreferrer" target="_blank">Vadim Galimov</a> and <a href="https://news.itmo.ru/en/profile/51/" rel="noopener noreferrer" target="_blank">Catherine Zavodova</a>, and originally published by <a data-saferedirecturl="https://www.google.com/url?q=https://news.itmo.ru/en/&source=gmail&ust=1665742142569000&usg=AOvVaw2LChR-pA6lYpYiNzCB_TIH" href="https://news.itmo.ru/en/" target="_blank">ITMO.NEWS</a>

Boston Dynamics’ Spot, bionic kangaroos and even ants – biomimetics allows us to replicate almost any living thing. But why do roboticists look to animals for inspiration, what do they do at ITMO, and how do you make a robot act “natural”?

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