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The Apogee+ exoskeleton aims to help support caregivers in healthcare settings. | Source: German Bionic.

German Bionic has unveiled the Apogee+, a powered exoskeleton for the North American healthcare market. Apogee+ aims to merge cutting-edge robots with research-backed, data-driven insights to better support caregivers.

Apogee+ is designed to provide personal lift assistance to caregivers, and it specifically addresses concerns with care worker safety and job satisfaction. This is German Bionic’s first foray into the healthcare space, and the mover underscores its success in industrial settings.

BEIJING, Aug. 24, 2023 /PRNewswire/ — On August 22, the 2023 World Robot Conference (WRC), which was held in Beijing with the theme of “Spurring Innovation for the Future,” came to a big success. The 2023 World Robotics Expo and the 2023 World Robot Contest took place at the same time, bringing together about 160 robotics companies and scientific research institutions from around the globe, and showcasing close to 600 advanced technologies and products, over 320 representatives from international organizations, academicians, renowned experts, and entrepreneurs at home and abroad have been invited to attend.

As a general robotics company, Dreame Technology took center stage for the first time at the World Robot Conference. It unveiled a wide range of robots, including general-purpose humanoid robots, consumer-grade bionic quadruped robots, industrial-grade quadruped robots, wireless Robotic Pool Cleaner, commercial food delivery robots and floor-cleaning robots. This range highlighted Dreame’s broad competitiveness across the fields of R&D for robotic ecosystems and technologies, supply chains, production and manufacturing, talent development, and commercialization.

New bionic hand with better move of fingers.


Successful testing of the bionic hand has already been conducted on a patient who lost his arm above the elbow.

In a world first, surgeons and engineers have developed a new bionic hand that allows users with arm amputations to effortlessly control each finger as though it was their own body.

The innovation could revolutionise the way prosthetic limbs are designed and used, with scientists hailing it as a “major breakthrough”.

Transhumanism — advocates strongly for humans to develop and make widely available sophisticated technologies that enhance human physiology and intellect greatly. In layman’s terms, transhumanists would like for human beings to become cyborgs; cybernetic organisms.

As such, transhumanist concepts feature greatly in science fiction. Cyborgs are commonly seen in all forms of science fiction media…

Concepts of transhumanism and the wish to improve human physiology beyond normal bounds comes from an age-old human desire. That desire is the desire for immortality. Such wishes have been expressed in literature and rhetoric as far back as the early Bronze Age.

It would still take quite some time after the industrial revolution for early transhumanist thinking to develop. Advanced technological growth could eventually allow humans to accomplish much more than a fully fit natural born and grown human can.

Does our increasing dependency on technology diminish our human potential? In this episode, visionary scientist Gregg Braden discusses the current transhuman movement – the merging of technology and human biology, often referred to as the singularity. He describes three levels of tech integration where the final level replaces our natural biology. In a time of rapid evolution, reflection and discernment are key. Braden highlights what we can do to release the conditioning of a technology-dependent society and how to follow the natural rhythms within ourselves.

It’s been rumored for several months now that Apple will be using a new 3 nm manufacturing process from Taiwan Semiconductor (TSMC) for its next-generation chips, including M3 series processors for Macs and the A17 Bionic for some next-gen iPhones. But new reporting from The Information illuminates some of the favorable terms that Apple has secured to keep its costs down: Apple places huge chip orders worth billions of dollars, and in return, TSMC eats the cost of defective processor dies.

At a very high level, chip companies use large silicon wafers to create multiple chips at once, and the wafer is then sliced into many individual processor dies. It’s normal, especially early in the life of an all-new manufacturing process, for many of those dies to end up with defects—either they don’t work at all, or they don’t perform to the specifications of the company that ordered them.

This is older but this is just the tip of the iceberg. China is rumored to be working on genetic engineering to create “super soldiers” and they’re one country that isn’t stopped by ethics concerns. In the Prime TV series “The peripheral” it has something similar and I don’t want to spoil it beyond that. I think there’s a Vin Diesel movie called Blood Shot where he’s made into a super soldier. It’s a shame that this is used for warfare but the plus side is it’ll, some of the tech, will make its way down to civilian life such as the Internet did.

What happens when humans begin combining biology with technology, harnessing the power to recode life itself.

What does the future of biotechnology look like? How will humans program biology to create organ farm technology and bio-robots. And what happens when companies begin investing in advanced bio-printing, artificial wombs, and cybernetic prosthetic limbs.

Other topic include: bioengineered food and farming, bio-printing in space, new age living bioarchitecture (eco concrete inspired by coral reefs), bioengineered bioluminescence, cyberpunks and biopunks who experiment underground — creating new age food and pets, the future of bionics, corporations owning bionic limbs, the multi-trillion dollar industry of bio-robots, and bioengineered humans with super powers (Neo-Humans).

As well as the future of biomedical engineering, biochemistry, and biodiversity.

Queen Mary University researchers have engineered a self-sensing, variable-stiffness artificial muscle that mimics natural muscle characteristics. The breakthrough has significant implications for soft robotics and medical applications, moving a step closer to human-machine integration.

In a study published on July 8 in Advanced Intelligent Systems, researchers from Queen Mary University of London have made significant advancements in the field of bionics with the development of a new type of electric variable-stiffness artificial muscle that possesses self-sensing capabilities. This innovative technology has the potential to revolutionize soft robotics and medical applications.

Technology Inspired by Nature.

In a study published recently in Advanced Intelligent Systems, researchers from Queen Mary University of London have made significant advancements in the field of bionics with the development of a new type of electric variable-stiffness artificial muscle that possesses self-sensing capabilities. This innovative technology has the potential to revolutionize soft robotics and medical applications.

Muscle contraction hardening is not only essential for enhancing strength but also enables rapid reactions in living organisms. Taking inspiration from nature, the team of researchers at QMUL’s School of Engineering and Materials Science has successfully created an artificial muscle that seamlessly transitions between soft and hard states while also possessing the remarkable ability to sense forces and deformations.

Dr. Ketao Zhang, a Lecturer at Queen Mary and the lead researcher, explains the importance of variable stiffness technology in artificial muscle-like actuators. “Empowering robots, especially those made from flexible materials, with self-sensing capabilities is a pivotal step towards true bionic intelligence,” says Dr. Zhang.