The First International Conference on Cyborg and Bionic Systems provide a free, open, and diverse platform for experts, scholars, students and industry professionals from the fields of robotics, biomedical engineering, neural engineering, and related domains. The conference aims to advance the development and real-world application of cutting-edge technologies.

A research team from Westlake University has published a groundbreaking study in Science Bulletin, demonstrating the innovative use of thin-film deposition technology to create micron-scale metal patterns on the surface of tardigrades, often regarded as the "toughest creatures on Earth." This breakthrough not only adorns them with a "metallic armor" but also realizes the intriguing concept of artificially controlling biological movement. The study extends the boundaries of traditional fabrication techniques. Where precision nanotechnology intersects with billions of years of evolutionary wisdom, this extraordinary convergence may spark a technological singularity that redefines the boundaries of life and machine.

A groundbreaking integrated encryption and communication (IEAC) framework, enabled by end-to-end deep learning, has achieved a record-breaking single-channel secure transmission rate of 1 Terabit per second (Tb/s) over a 1,200-km optical fibre link. Published in National Science Review, this innovation optimizes mutual information for legal users while minimizing leakage to eavesdroppers, offering a scalable solution for high-speed, secure data transmission in the era of big data and AI.

In a paper published in SCIENCE CHINA Earth Sciences, a team of researchers employed systematic archaeobotanical flotation and AMS radiocarbon dating at two sites in Romania: Baia-În Muchie and Dobrovăț. It provides valuable data on the chronology of millet cultivation in the SW Eastern European Plain and enhances our understanding of early East-West exchanges and their impact on human-environment interactions in critical regions.

Recently, Professor Peng Xue's team from the Beijing Computational Science Research Center published an article titled "Quantum cooling engine fueled by quantum measurements" in Science Bulletin. The research team employed a linear optical platform to simulate a two-stroke, two-qubit engine. In the experiment, they demonstrated various quantum thermodynamic processes by tuning the energy level spacing of the working substance and adjusting the temperature parameters of the bath. They successfully realized a quantum cooling engine driven by quantum measurements and discovered the influence of entanglement on the energy exchange between the working substance and the measurement apparatus.