Category: TCCI Blog

  • Implantable device for wirelessly controlled drug delivery

    Implantable device for wirelessly controlled drug delivery

    Summary Researchers from Stanford University have developed an implantable, ultrasound-powered drug delivery device that integrates nanoparticles and electronics for targeted, on-demand drug release. The device uses a potentiostat to control drug release by measuring the current between electrodes, and it operates wirelessly through ultrasound, making it ideal for deep tissue implantation. The system allows precise […]

  • Stanford scientists uncover how brain regions keep each other on track

    Stanford scientists uncover how brain regions keep each other on track

    Summary Before smartphones, memorizing phone numbers was a common necessity, often accomplished by mentally repeating the number. The brain similarly solves short-term memory problems by maintaining patterns of neuronal activity. Researchers, led by Professors Shaul Druckmann and Nuo Li, studied how this occurs in mice by engaging their short-term memory. They discovered that two brain […]

  • A Window into Maternal Health Through Hair Cortisol

    A Window into Maternal Health Through Hair Cortisol

    Summary Hair cortisol concentration (HCC) offers a promising non-invasive method to track stress hormone levels over time, particularly during pregnancy. Cortisol, crucial in the body’s stress response, is deposited into hair, reflecting past hormone levels. A study led by Dr. Lucy King at Stanford University examined HCC dynamics in pregnant women and postpartum, finding significant […]

  • Finding brain patterns underlying depression: linking functional neuroimaging tosymptom subtypes

    Finding brain patterns underlying depression: linking functional neuroimaging tosymptom subtypes

    Summary Researchers at Stanford University, led by Dr. Leanne Williams, are developing a framework that links brain circuit activity, observed via fMRI scans, to specific depression and anxiety symptoms. Traditional psychiatric labels fail to reflect the biological underpinnings of mental health conditions, but the study focuses on neural circuit dysfunctions, such as the default mode […]

  • Soft-Bioelectronics to Detect Neuromotor Disorders in Infants

    Soft-Bioelectronics to Detect Neuromotor Disorders in Infants

    Summary Researchers are exploring the use of soft, flexible, wireless bioelectronics to detect neuromotor disorders in infants, addressing the challenges of current bulky and wired systems. Traditional assessments, like Prechtel’s tool, predict cerebral palsy in infants by analyzing general movements (GMs), but these methods rely heavily on video monitoring and expert evaluation. A new approach, […]

  • Early Liver Cancer Diagnosis Using Magnetoresistive Biosensors

    Early Liver Cancer Diagnosis Using Magnetoresistive Biosensors

    Summary Researchers at Stanford University have developed an innovative biosensor using the giant magnetoresistive (GMR) effect to enable early, sensitive, and automated detection of hepatocellular carcinoma (HCC), the most common type of liver cancer. The biosensor leverages a magnetic-based immunoassay to detect biomarkers like alpha-fetoprotein (AFP) and C-reactive protein (CRP) in real time. It offers […]

  • Smart Contact Lens Monitors Blood Sugar

    Smart Contact Lens Monitors Blood Sugar

    Summary Researchers at Stanford University and POSTECH have developed a smart contact lens that monitors blood sugar levels through a chemical reaction involving glucose in tears. The lens uses a combination of gold and platinum nanoparticles embedded in a polymer hydrogel to catalyze this reaction, producing electricity proportional to glucose levels. This technology offers continuous, […]

  • Molecular Strategy Enables High Performance of Elastic Skin-inspired Electronics

    Molecular Strategy Enables High Performance of Elastic Skin-inspired Electronics

    Summary A Stanford University research team, led by Professor Zhenan Bao, has developed a novel strategy for creating flexible, stretchable, and durable skin-inspired electronics using a molecular design approach. The team introduced the covalently-embedded in-situ rubber matrix (iRUM) strategy, which enables high-performance field-effect transistors (FETs) with stretchable polymer semiconductors and dielectrics. This innovation ensures that […]