Latest News Releases
Updates every hour. Last Updated: 30-Oct-2026 18:17 ET (30-Oct-2026 22:17 GMT/UTC)
The New Impact Factor of Journal Cyborg and Bionic Systems 20.9, ranking 2nd in “Robotics”; ranking 4th in “Engineering, Biomedical”
Beijing Institute of Technology Press Co., LtdBusiness Announcement
- Journal
- Cyborg and Bionic Systems
Can silicon–carbon anodes push beyond the conventional capacity limit of silicon?
ResearchPeer-Reviewed Publication
A new study published in Research by Prof. Shisheng Lin group from Zhejiang University and collaborating institutions reports a defect-rich silicon–carbon composite anode with an initial discharge capacity of 6,694.21 mAh g⁻¹, well above the commonly cited theoretical capacity of silicon.
- Journal
- Research
- Funder
- National Natural Science Foundation of China, Distinguished Youth Fund of the Zhejiang Natural Science Foundation of China
PGK1 lactylation-driven self-reinforcing loop orchestrates glycolytic reprogramming in FSP1+ macrophages in liver fibrosis
ResearchPeer-Reviewed Publication
FSP1 (fibroblastspecific protein 1) was originally considered a marker of fibroblasts, but recent studies have confirmed that it is primarily expressed by a proinflammatory macrophage subset in liver injury and participates in the regulation of inflammation and fibrosis. This study systematically explores the interplay among these three elements.
- Journal
- Research
- Funder
- National Natural Science Foundation of China, Shanghai Municipal Key Specialty Project, Clinical Research Plan of SHDC, Shanghai Clinical Research Center for Digestive Diseases, Shanghai Baoshan District Science and Technology Commission
Deterministic shaping of nanoplasma shock waves with double-pulse femtosecond laser excitation
Ultrafast ScienceWhen intense femtosecond laser pulses irradiate nanoparticles, the rapid energy deposition triggers a cascade of electronic and ionic responses within an extremely short time window, giving rise to transient nanoplasma shock waves-one of the most extreme states of matter reproducible in laboratory environments. These nanoscale shock waves offer a unique platform for studying mesoscale physical processes on ultrafast timescales, and hold promise for applications ranging from nanofabrication and compact laser-driven ion accelerators to targeted cancer therapies. However, achieving fine control over the spatial characteristics and propagation of nanoplasma shock fronts has remained a long-standing challenge.
- Journal
- Ultrafast Science