Advance from SMART will help to better identify disease markers and develop targeted therapies and personalized treatment for diseases such as cancer and antibiotic-resistant infection.
The BiophysicaL Immune Profiling for Infants (BLIPI) profiles an infant’s immune system in under 15 minutes, using just a single drop of blood.
Researchers from SMART DiSTAP developed the world’s first near-infrared fluorescent nanosensor capable of monitoring a plant’s primary growth hormone in real-time and without harming the plant.
Researchers used microneedles to inject fresh-cut crops with melatonin and delay spoilage.
Researchers showed they can inexpensively produce silk microneedles to deliver vitamins or agrochemicals to plants.
Ultraviolet light “fingerprints” on cell cultures and machine learning can provide a definitive yes/no contamination assessment within 30 minutes.
The innovation enables nondestructive iron tracking within plant tissues, helping to optimize plant nutrient management, reduce fertilizer waste, and improve crop health.
Sensors developed by SMART researchers are capable of detecting pH changes in plant xylem enable farmers to detect drought stress up to 48 hours before visible physical symptoms manifest.
SMART researchers find mesenchymal stromal cells are an attractive alternative to current costly, time-intensive treatments.
Membranes based on natural silk and cellulose can remove many contaminants, including “forever chemicals” and heavy metals.
The spending increases were particularly pronounced for businesses within 100 yards of charging stations, and for businesses in low-income areas.
With extensive international outreach experience as a faculty member and program leader, Boning brings a spirit of curiosity and collaboration to his new role.
A trailblazer in electron microscopy, Vander Sande is remembered for his dedication to teaching, service, and global collaboration.
A chip the size of a pack of cards uses fewer resources and a smaller footprint than existing automated manufacturing platforms and could lead to more affordable cell therapy manufacturing.
SMART researchers find a cellular process called transfer ribonucleic acid (tRNA) modification influences the malaria parasite’s ability to develop resistance.