Kurt Knutsson discusses how the Hero PRO, a wireless, waterproof bionic arm with fast control and full 360-degree wrist rotation, transforms prosthetics. Bionic arms used to cost more than a new car. Unlimited Tomorrow is making 3D-printed prosthetics available for under 8,000 and doing it without sacrificing quality, comfort or functionality. Easton LaChappelle founded the company in 2014 at the age of 18. His simple goal was to give more people access to advanced prosthetics that actually fit their lives.

The quality of a transtibial prosthetic socket depends on the prosthetist's skills and expertise, as the fitting is performed manually. This study investigates multiple artificial intelligence (AI) approaches to help standardize transtibial prosthetic socket design. Data from 118 patients were collected by prosthetists working in the Dutch healthcare system. This data consists of a three-dimensional (3D) scan of the residual limb and a corresponding 3D model of the prosthetist-designed socket. Multiple data pre-processing steps are performed for alignment, standardization and optionally compression using Morphable Models and Principal Component Analysis. Afterward, three different algorithms - a 3D neural network, Feedforward neural network, and random forest - are developed to either predict 1) the final socket shape or 2) the adaptations performed by a prosthetist to predict the socket shape based on the 3D scan of the residual limb. Each algorithm's performance was evaluated by comparing the prosthetist-designed socket with the AI-generated socket, using two metrics in combination with the error location. First, we measure the surface-to-surface distance to assess the overall surface error between the AI-generated socket and the prosthetist-designed socket. Second, distance maps between the AI-generated and prosthetist sockets are utilized to analyze the error's location. For all algorithms, estimating the required adaptations outperformed direct prediction of the final socket shape. The random forest model applied to adaptation prediction yields the lowest error with a median surface-to-surface distance of 1.24 millimeters, a first quartile of 1.03 millimeters, and a third quartile of 1.54 millimeters.

In addition to the Olympics and Paralympics, there's another epic celebration of human fortitude: The Cybathlon, otherwise known as the Cyborg Olympics. According to Max Ortiz-Catalan, a bionics engineer at the Chalmers University of Technology in Sweden, it's "the Olympics for cyborgs, where technologies are used to overcome disabilities." Unlike the other events, the Cybathlon commemorates new prosthetic technologies and runs timed competitions ranging from biking to hanging laundry. Hanging up T-shirts while wearing an arm prosthesis is notably difficult. These prostheses can be bulky and hard to maneuver, with a limited range of motion.

An exoskeleton that lets amputees feel like they are'walking with two normal legs' has been developed by scientists using battery-powered electric motors. The powerful exoskeleton, which wraps around the wearer's waist and leg, was developed by a team of engineers at the University of Utah in Salt Lake City. It has been designed for above-the-knee amputees and uses battery-powered electric motors and embedded microprocessors to reduce walking effort. The 5.4lb frame is made of carbon-fibre material, plastic composites and aluminium and can walk for miles between charges, according to its creators. Those wearing it saw a 15.6 per cent reduction in their metabolic rate, equivalent to taking off a 26-pound backpack while out on a long walk, the team said.

Scientists have created an inflatable robotic hand that costs a fraction of more rigid prosthetic limbs and gives amputees real-time tactile control. The pliable design, which bears an uncanny resemblance to the inflatable robot in the animated film'Big Hero 6', includes five balloon-like fingers attached to a 3D-printed'palm' shaped like a human hand. Its creators are particularly excited because the parts cost around $500 (£362), making it much more affordable than other bionic limbs that can cost tens of thousands of dollars. The pliable design includes five balloon-like fingers attached to a 3D-printed'palm' shaped like a human hand Prosthetics that attach to part of the human body are often objects that allow a person to perform a specific function - such as blades for running. Scientists are working to develop prosthetics that are personalised and respond to the commands of the wearer.

For an estimated two million people in the U.S. living with limb loss, commercial-grade prosthetics can be bulky, unintuitive, and still make everyday activities, like stepping over a sleeping cat, a challenge. A team of engineers has designed a new approach to prosthetic limb movement that uses artificial intelligence to mimic the motion of the user's residual leg, making the act of walking smoother and more intuitive. What's the news -- In a study published this week in the journal Science Robotics, mechanical engineers from the University of Utah designed a way to control the movement of prosthetic limbs that allow for more natural interaction with new environments like balls bouncing into your path or stepping over rocks. Previous work with powered prosthetics relied on preprogrammed behaviors based on the movements of non-amputee individuals, but the authors write that this approach -- while effective -- limits the use of the prosthetic to pre-mapped areas and obstacles. This would work great if you were only walking to the same places every day, but it's not practical to retrain your prosthetic every time you want to go someplace new.

The Office of Naval Research has revealed plan to partner with the Walter Reed National Military Medical Center, the Naval Research Laboratory, and a number of universities to develop a new type of leg prostheses. Along with being more comfortable, these smart artificial limbs will help users prevent the threat of infection. The Monitoring OsseoIntegrated Prosthesis (MOIP) project hinges upon a titanium fixture that is surgically implanted into the recipient's femur. Bone is generated around the point where it's implanted, so only the small connection point juts out. An artificial limb can be connected or detached from this adapter at will.

The Office of Naval Research has announced plans to partner with the Walter Reed National Military Medical Center, the Naval Research Laboratory, and several universities to develop a new form of leg prostheses. As well as being more comfortable, these smart artificial limbs will help users avoid the risk of infection. The Monitoring OsseoIntegrated Prosthesis (MOIP) project hinges upon a titanium fixture that is surgically implanted into the recipient's femur. Bone generates around the point where it's inserted, so only the small connection point juts out. An artificial limb can be attached or detached from this connector at will.