Utah law allowing minors to revoke medical consent retroactively is ‘attacking the foundation of the US healthcare system’
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Updates every hour. Last Updated: 9-Jul-2025 15:11 ET (9-Jul-2025 19:11 GMT/UTC)
Under the Health Care Malpractice Act, updated in 2023, minors can recant their consent before age 25 if they develop a “permanent injury” from their treatment, with the argument that their doctor should have anticipated the patient’s health outcome and subsequent regret. Allowing patients to withdraw informed consent retroactively places an extreme burden on clinicians, limits access to gender-affirming care, and acutely threatens the legal infrastructure supporting US healthcare, according to a new perspective article by Boston University School of Public Health and Cornell Law School researchers.
A recent study introduces an innovative method for analyzing body composition using advanced 3D imaging and deep learning techniques. This approach aims to provide more accurate assessments of body fat and muscle distribution, which are crucial for understanding health risks associated with various conditions.
The study, “3D Convolutional Deep Learning for Nonlinear Estimation of Body Composition from Whole Body Morphology,” authored by researchers from Pennington Biomedical Research Center, University of Washington, University of Hawaii and University of California-San Francisco was recently published in NPJ Digital Medicine, a journal of the Nature portfolio.
Key Highlights of the study include:
Advanced Imaging: The researchers utilized 3D imaging technology to capture detailed representations of the body's shape.
Deep Learning Application: By applying sophisticated deep learning algorithms, the study achieved more precise estimations of body composition compared to traditional methods.
Health Implications: Accurate body composition analysis is essential for assessing health risks related to obesity, cardiovascular diseases, and other metabolic disorders.
A new computational tool could help researchers identify promising drug combinations for treating cancer, according to a new study.
Liposuction and plastic surgery aren’t often mentioned in the same breath as cancer.
But they are the inspiration for a new approach to treating cancer that uses engineered fat cells to deprive tumors of nutrition.
Researchers at UC San Francisco used the gene editing technology CRISPR to turn ordinary white fat cells into “beige” fat cells, which voraciously consume calories to make heat.
Research out of Emory University and QIMR Berghofer Medical Research Institute in Queensland, Australia, has shown that a potential new targeted therapy for childhood brain cancer is effective in infiltrating and killing tumor cells in preclinical models tested in mice. In the paper published in Nature Communications, the novel drug CT-179 was shown to target a specific subset of tumor cells responsible for recurrence and therapy resistance in pediatric brain cancer. The findings could lead to more effective, less toxic treatments, improving survival and quality of life for young patients.
A SickKids research team has identified a critical event driving tumour growth in a type of medulloblastoma – and a way to block it.
For decades, scientists have tried to stop cancer by disabling the mutated proteins that are found in tumors. But many cancers manage to overcome this and continue growing.
Now, UCSF scientists think they can throw a wrench into the fabrication of a key growth-related protein, MYC, that escalates wildly in 70% of all cancers. Unlike some other targets of cancer therapies, MYC can be dangerous simply due to its abundance.
The California Institute for Regenerative Medicine has awarded a $6 million grant to USC investigators pioneering a new first-of-its-kind genetic therapy for glioblastoma, a severe form of brain cancer. The treatment would be the first gene therapy for glioblastoma to use a novel, more precise delivery system that is less likely to harm non-cancerous cells. The three-year grant, led by USC in collaboration with members of the Zolotukhin Lab at the University of Florida, builds on three advances the team has made towards a novel glioblastoma treatment, with the goal of moving it closer to clinical trials: new drug treatment targets involving key "master regulator" genes typically active only in early fetal development that can drive growth in a tumor; a newly identified AAV (adeno-associated virus) delivery vehicle for gene therapy that appears to target glioblastoma cells while sparing healthy cells; and the development of a new enhanced tumor mapping procedure that could help optimize catheter placement and maximum drug diffusion in the brain.
Researchers at the University of Kentucky have developed a cost-effective, non-destructive microscopy technique to study cancer cell metabolism at the single-cell level. Published in Biophotonics Discovery, the approach uses a standard fluorescence microscope and imaging software to analyze metabolic changes in response to radiation treatment. In their study of head and neck squamous cell carcinoma, the team observed how radiation-induced activation of the protein HIF-1α contributed to metabolic reprogramming and radiation resistance. This novel method offers a more accessible way to explore metabolic shifts in tumors, potentially advancing cancer treatment strategies by improving the understanding of resistance mechanisms.