This technology utilizes cellulose nanocrystals (CNC) to create recyclable, efficient organic solar cells with high transparency and flexibility, offering a sustainable alternative to traditional silicon-based solar panels for diverse renewable energy applications.

This innovative technology leverages grayscale digital light processing (g-DLP) 3D printing to fabricate structures from shape memory polymers that can morph into different shapes post-printing.

WaveTag enables real-time visibility into asset and inventory tracking, leveraging passive non-linear circuits to transform low-frequency signals into UWB preambles for precise location tracking.

This technology introduces a novel approach to quantitative phase imaging (QPI) by leveraging deep learning and oblique back-illumination microscopy (qOBM) to produce high-resolution, 3D quantitative phase images of thick samples in a single capture.

This technology offers a novel approach to treating neuropsychiatric and neurological disorders through non-invasive brain stimulation, using sensory flicker at specific frequencies to induce neurological responses.

This technology utilizes auditory and visual stimuli to non-invasively entrain specific neural rhythms within deep brain structures, addressing diseases characterized by altered rhythmic activity such as Alzheimer's, Parkinson's, and epilepsy.

This technology, called Single Cell Spatially resolved Metabolic (scSpaMet) framework, integrates spatial metabolomics with protein imaging to enable detailed profiling of metabolic and protein interactions in individual cells, providing valuable insights for cancer and immune research.

This invention introduces a high-stiffness layer in press fabric used in papermaking to enhance dewatering, significantly reducing moisture content and energy consumption during the drying phase.

This technology utilizes Analogue Time Division Multiplexing (TDM) to reduce cable complexity in imaging catheters, enabling real-time 3D imaging for Intracardiac Echocardiography (ICE) while eliminating the need for harmful X-ray imaging.

The technology aims to improve the structural integrity and performance of zinc anodes, which are crucial for extending the life and efficiency of batteries in various applications.

This technology introduces a dual-gate field-effect transistor sensor that enhances sensitivity, stability, and compatibility with flexible substrates, offering a cost-effective solution for applications in health monitoring, IoT, environmental sensing, and radiation detection.

This technology uses organic molecules with delayed fluorescence to create light converters that closely mimic natural daylight, providing energy-efficient, high-quality indoor lighting that supports circadian health and reduces visual fatigue.