2026-01-26
This research advances the intersection of bioengineering and neuroscience. The constructed "human cerebral vascular chip" represents the first comprehensive simulation of the human cerebral vascular system from structure to function. It provides an unprecedented in vitro platform for exploring cerebral blood flow regulation, BBB mechanisms, and brain diseases closely related to vasculature, such as neuroinflammation, Alzheimer's disease, and stroke.
2026-01-19
Published in Nature, this research marks a shift in tumor immunotherapy from “target blockade” to “cellular fate reprogramming.” With ongoing optimization and clinical exploration of the iVAC platform, it holds promise as a core tool for the next generation of immunotherapies, offering new hope to millions of cancer patients.
2025-12-19
Scientists Crack the "Xenogeneic Barrier", Offering a New Path for Growing Human Organs in Animals
For a long time, human cells have often been excluded and struggled to survive in animal embryos due to the "xenogeneic barrier." The mainstream strategy in the past involved genetically engineering human cells to enhance their anti-apoptotic capabilities, but this approach carries potential safety risks such as carcinogenesis. How can this barrier be overcome more safely? A collaborative team led by the University of Texas Southwestern Medical Center and BGI Research used mice as a model to tackle this issue and achieved a critical breakthrough.
2025-12-12
No Need for Open-Chest Surgery: Stem Cell Patch Enables Minimally Invasive Heart Repair
Recently, a joint research team from the Mayo Clinic and the University of Nebraska Medical Center published a breakthrough study in the Journal of Biomedical Materials Research—they successfully developed a minimally implantable stem cell patch that can repair damaged hearts without open-chest surgery, providing a safer treatment option for heart failure patients. This achievement signifies the deep integration of regenerative medicine and minimally invasive interventional technology, which is expected to reshape the clinical approach to heart repair.
2025-12-12
Tsinghua University Team Makes New Progress in Cross-Scale Biological Sample Cryopreservation
Cryopreservation technology, as a key support for cell therapy, regenerative medicine, organ transplantation, and biological resource preservation, has long been constrained by ice crystal damage—from single cells to complex organs, the formation, propagation, and recrystallization of ice during rewarming progressively amplify structural and functional damage. Recently, Assistant Professor Geng Hongya’s team at Tsinghua Shenzhen International Graduate School has achieved a breakthrough in cross-scale biological sample cryopreservation. The related findings were published in the top international journal Advanced Materials, offering innovative solutions to two core challenges: low-temperature ice inhibition and efficient rewarming.
2025-11-28
This research represents a solid step toward this long-term goal at the scientific and technological foundation level. With the continuous iteration of related technologies, organ banks, once confined to science fiction, may become a reality, bringing hope to millions of patients worldwide awaiting organ transplants.
2025-11-28
A University of Virginia research team has pioneered a novel 3D-printable material compatible with the human immune system, as reported in the latest issue of Advanced Materials.
2025-11-21
Industry experts believe that this study marks a critical breakthrough for China in the field of tumor immunotherapy. It provides important insights for CAR-T therapy to tackle other solid tumors, such as lung and liver cancer, and will elevate China's level of tumor immunotherapy to new heights.
2025-11-17
A groundbreaking research study recently published in the prestigious international academic journal Science Advances reveals a remarkable achievement: a collaborative research team comprising over ten institutions, including Huashan Hospital affiliated with Fudan University, the Shanghai Institute of Microsystem and Information Technology, and ShanghaiTech University, has successfully realized high-precision real-time decoding of a brain-computer interface (BCI) for all Chinese syllables. This research not only brings hope for rehabilitation to individuals with aphasia but also signifies a leap in humanity's ability to interpret linguistic thoughts in the brain, turning "speaking through thoughts" from science fiction into reality.
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