Our research team has developed a short-wave infrared light gold nanoclusters as an intraoperative fluorescent imaging agent, breaking the light emission limit of the previous gold nanoclusters, shifting the light emission position to the infrared spectrum, successfully avoiding the autofluorescence between the tissuesachieve deeper penetration along with instant bio-imaging. This technology has clearerdeeper imaging benefit with the potential to become a clinical medical infrared imaging agent.

1. Infrared wax physisorption kinetics (iR-WPK) provides a glyco-histopathological imaging analysis for examining tissue sections, which utilizes n-alkanes with carbon number (CN) from 20 to 34 and beeswax as glycan adsorbents for targeting similar longitudinal length of glycans of glycoconjugates anchoring in the cell surface. 2. It is an in-situ non-destructive method of examining tissue sections for cancer screening and prognosis prediction for chronic kidney disease by profiling aberrant glycans covalently-attached to both glycoconjugates anchored in tissue sections. 3. It can screen ten cancers including colon cancer, breast cancer, ovary cancer, cervical cancer, oral cavity cancer, gastric cancer, skin cancer, prostate cancer, intestinal neuroendocrine tumor and brain cancer.

Energy-saving glass is realized using nano-imprinting to fabricate a periodic nano-structures. The glass can suppress the transmission of ultraviolet light such that people are not harmed. The transmission of infrared is largely reduced to lower air-conditioning. On the other hand, transmission is not deteriorated in the visible range to prevent the increment of illumination cost.

"In this project, the proposed technologies of Environment Sensing Hub including： (1) Air sensing hub：integrate H/T/P sensor, PM 2.5 sensorwireless multiplexing module for system-on-package (SiP)system-on-chip (SoC) (2) Water sensing hub：heavy metal ion sensor (modules integration, startup company), spectrochip (systems integration, startup company)"

The proposed TOA-STFM is a spatiotemporal image fusion technology that can preserve top-of-atmosphere (TOA) reflectance. By fusing high spatial (Landsat-8SPOT-6)high temporal resolution (Himawari-8) images, the fused 10-minute-6~30-meter-resolution images can solve the problem of existing air quality monitoring techniqueseffectively capture the dynamic changes of air quality in near-real-time.