Evolutionary algorithms that imitate nature to solve technical problems, synthetic DNA that turns plants into living data archives, and the use of autonomous machines inside living bodies are just a f...

The position offers a unique opportunity to explore emerging directions in organoid intelligence, adaptive control, and biohybrid robotics, with a structured progression from foundational experiments ...

Wearable health devices, such as smartwatches, have become commonplace, enabling the continuous monitoring of physiological signals at the skin's surface. A research team in Japan has developed a biohybrid approach that works inside the body—transforming engineered skin into a visible indicator of internal biological states.

YouTube video by Gabriel Torch

人間の筋組織からつくった駆動装置で動く世界最大のバイオハイブリッドハンドを、東京大学の研究チームが開発した。筋肉の収縮で動く義手の開発や薬物試験モデルの構築など、将来的に幅広い分野での応用が期待されている。

Reshaping regenerative medicine Biohybrid polymers - synthetic polymers chemically bonded with specific biomolecules - enable targeted biological responses in the human body. This approach represents a fundamental shift from inert materials to bioactive platforms that actively guide tissue repair. In a recently published review, Dr Peili Teo, Director for Technology at Bioactivx, outlines how biohybrid polymer platform can be applied across wound care, orthopaedics, and tissue regeneration, including skin, bone, and cartilage. We believe this is just the beginning of what bioinspired synthetic materials can unlock. #RegenerativeMedicine #BiohybridPolymers #WoundCare #Orthopaedics #MedTech #Bioactivx

They're quite a bit cheaper than manufactured nozzles if you can dissect them.

EPFL scientists have integrated discarded crustacean shells into robotic devices, leveraging the strength and flexibility of natural materials for robotic applications.

Biohybrid implants are a promising development for cardiovascular disease treatment but suffer from problems like thrombogenesis and calcification. However, testing and validating biohybrid implants c...

Scientific Reports - Biohybrid microvascular interponates with integrated elastin-like recombinamers – validation of stability and biomimetic elasticity in human vessels

Becoming Limitless

Researchers have unveiled a breakthrough technology that could transform the way scientists build and study lab-grown brain tissue models. The innovation, called Cellular RedOx Spreading Shield…

Researchers have unveiled a breakthrough technology that could transform the way scientists build and study lab-grown brain tissue models. The innovation, called Cellular RedOx Spreading Shield (CROSS), ...