Social factors may determine how human-like we think animals are
Peer-Reviewed Publication
Updates every hour. Last Updated: 29-Jun-2025 00:10 ET (29-Jun-2025 04:10 GMT/UTC)
From depressed polar bears to charismatic pandas, conservationists have used anthropomorphism, or the practice of attributing human qualities to non-human subjects, to garner public support for conservation efforts. In a new study publishing June 18 in the Cell Press journal iScience, scientists tease apart some of the social factors that influence whether people view animals similarly to humans. The researchers found that factors such as social integration, urban living, formal education, and religion can affect an individual’s tendency to assign human characteristics to animals. This in turn may affect their willingness to engage with conservation programs.
A research group led by Professor SUZUKI Hiroaki from Faculty of Science and Engineering at Chuo University, graduate students YONEYAMA Ryotaro (at the time), MORIKAWA Naoya, and USHIYAMA Ryota (at the time), Research Fellow TSUGANE Mamiko, Technical Assistant SATO Reiko (at the time), and Special Appointed Assistant Professor MARUYAMA Tomoya from Research Center for Autonomous Systems Materialogy (ASMat), Institute of Integrated Research (IIR), Institute of Science Tokyo, along with Professor TAKINOUE Masahiro from Department of Computer Science, Institute of Science Tokyo, has developed a technology for mass-producing uniform artificial cells (lipid bilayer vesicles) with artificial model nuclei using microfluidic devices with high reproducibility. They also demonstrated that protein synthesis from this model nuclei was possible.
From the biology of aging to the future of artificial intelligence (AI)-driven medicine, Mount Sinai Health System will participate at the 2025 Aspen Ideas: Health (Sunday, June 22-Wednesday, June 25) and Aspen Ideas Festival (June 25-Tuesday, July 1) in Aspen, Colorado. Mount Sinai is proud to be a presenting underwriter of both festivals, where Mount Sinai thought leaders will lead discussions and the Health System will provide complimentary dermatologic screenings for attendees. “We return to Aspen Ideas: Health and the Aspen Ideas Festival deeply inspired—by the setting, the community, and the shared pursuit of progress,” said Brendan G. Carr, MD, MA, MS, Chief Executive Officer and the Kenneth L. Davis, MD, Distinguished Chair, Mount Sinai Health System. “This year, my colleagues will explore the emerging science of aging and inflammation and how Mount Sinai is harnessing AI to propel science and health care innovation. Our goal, as a learning health system, is to solve the world’s most complex health and science challenges to improve health of people everywhere.”
An international team of scientists, co-led by researchers at Trinity College Dublin and the University of Florida, has cracked a decades-old mystery in human biology: how our bodies absorb a micronutrient that we rely on for everything from healthy brain function to guarding against cancer. Queuosine, a microscopic molecule first discovered in the 1970s, is a vitamin-like micronutrient that we can't make ourselves but can only get from food and our gut bacteria. It’s vital to our health, yet its importance went unnoticed for decades. Now, in a study published this week in leading international journal Proceedings of the National Academy of Sciences (PNAS), researchers have discovered the gene that allows queuosine to enter the cells, a discovery that opens the door for potential therapies to be created to leverage the micronutrient’s role in cancer suppression, memory and how the brain learns new information.
Recently, the research team led by Rui Jiang at Tsinghua University’s Department of Automation published a study titled “CASHeart: A database of single-cell chromatin accessibility for the human heart” in Quantitative Biology. This work systematically integrates and processes publicly available datasets to reveal cellular heterogeneity in the human heart, thereby advancing molecular insights into cardiac development, functional maintenance, disease pathogenesis, and therapeutic responses.
Recently, Xie Zhen's team from Tsinghua University published a research article titled "SPECIFIC: A systematic framework for engineering cell state-responsive synthetic promoters reveals key regulators of T cell exhaustion" in Quantitative Biology, proposing an integrated framework combining chromatin accessibility analysis and machine learning for rational design of synthetic promoters.