Stanford researchers have identified a novel, embryo-informed strategy to improve the chances of pregnancy for patients undergoing in vitro fertilization (IVF).
Stanford researchers have developed a machine learning framework that uses graph diffusion to generate transferable node representations across heterogeneous networks, without retraining the encoder.
Researchers at Stanford have developed a novel method to correct motion-induced image distortion in rolling shutter cameras using a single camera sensor.
Stanford researchers in the Chemical and Systems Biology Department have developed a wearable biosensor patch that enables continuous monitoring of female reproductive hormones.
Stanford researchers have developed recursive phylon nomination, enumeration and recovery X (RePhyNERX), a method for identifying and removing potential field-effect mutations from mutation lists used in urine-based cancer monitoring.
Stanford researchers have identified a therapeutic approach for benign uterine conditions. The approach targets the endometrium directly rather than the hormonal environment that sustains them.
Stanford researchers have developed a software method that estimates the regional burden of neurofibrillary tau in the brain using magnetic resonance imaging (MRI) acquired in patients.
Stanford researchers have developed a catalytic process that co-produces low-carbon hydrogen and carbon nanotubes (CNTs) inexpensively enough to add to ordinary cement without raising its price.
Stanford researchers have developed a simple injectable hydrogel that slowly releases vaccine components over time, helping the body build stronger and longer-lasting immunity.
Researchers at Stanford have developed a smart calibration platform that allows neural implants to precisely target individual nerve cells, unlocking higher-resolution performance from next-generation medical devices.
Stanford researchers in the Biomimetics & Dexterous Manipulation Laboratory have developed the Gecko Lasso, a lightweight tethered adhesive system for non-destructively contacting, de-tumbling, and capturing rotating orbital debris.
Stanford researchers have developed a patented imaging probe manipulator that consistently maintains probe-to-patient contact pressure and compensates for patient respiratory motion and anatomy shifts during External Beam Radiation Therapy (EBRT).