Researchers in Japan have demonstrated that acoustic waves in the audible frequency range can directly modulate gene expression in mammalian cells and significantly inhibit adipocyte differentiation. The study reveals a novel mechanotransduction pathway linking sound stimulation to cellular responses via focal adhesion signalling, opening potential applications in regenerative medicine and biotechnology.
Researchers at the University of Minnesota Twin Cities have demonstrated a groundbreaking process that combines 3D printing, stem cell biology, and lab-grown tissues for spinal cord injury recovery. The innovative approach uses microscopic channels to guide neural regeneration, offering new hope for treating complete spinal cord injuries.
Researchers at the National University of Singapore have developed a revolutionary biomaterial that demonstrates how environmental changes around heart cells could reverse age-related cardiac damage. The breakthrough research suggests that targeting the cellular environment, rather than the cells themselves, may offer new therapeutic pathways for heart rejuvenation.
Researchers at the University of Nottingham have developed a new approach to create regenerative materials using patients’ own blood, combined with synthetic peptides, demonstrating successful bone repair in animal studies.
New research reveals how delaying inflammatory signalling can dramatically increase the number of blood stem cells formed during embryonic development, potentially aiding efforts to produce these cells in the laboratory.
April 2024
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McAlpine Research Group, University of Minnesota
College of Design and Engineering at NUS
© Clyde Campbell