Innovation Pilot
N2O is the top global-warming gas direct emissions in the Taiwan Semiconductor Industry, with annual emissions of 1.3 million metric tons CO2e. However, the traditional hot-wet(electrical) LSCs are poor in abating N2O (DRE about 10%). Therefore, in response to the urgent need for semiconductor carbon reduction, our team have developed the reducing agent-adding N2O abatement technology to improve the DRE of N2O. In this technology, using real-time monitoring of the N2O DRE and the reducing agent residual concentration for feedback control. At the same time, the reducing agent residual concentration also can comply with the safety emission standards for the use of flammable gases in semiconductor fields. Currently, we are cooperating with the technology transfer manufacturers to modify existing LSCs with reducing agent-adding N2O abatement technology. The carbon reduction is expected to reach 224,000 tons per year.
Innovation Pilot | Electronics ＆ Optoelectronics/Machinery ＆ System/Green Energy ＆ Environment
In today's society, spending on digital advertising is increasing, yet its effectiveness is declining. Statistics show that out of 100 visitors to a website, only 3 will make a purchase. ChiChat can automatically intercept customers who are about to leave the site and engage with them using AI technology patented in both Taiwan and Japan, guiding them towards a purchase. It has successfully helped hundreds of businesses increase their revenue by an average of 10%!
Innovation Pilot | Life Application
NCSIST has produced high quality FPAs, the thermal image shows that it has high operability and good uniformity. We produced various 15um FPAs with small sized where low power cooling systems can be used, making our products both light and price low. InSb FPAs can be integrated into IDDCA to achieve many applications, such as Enhanced Vision System (EVS) for an aircraft or a seeker.
Innovation Pilot | Electronics ＆ Optoelectronics
Currently, resources for surgical education and training are quite limited. Even though virtual environments and sensing systems are used as surgical simulation and training tools, they lack the touch of real and casting to create spine and nerve models and use novel material technology to make the nervorgans, resulting in new residents and medical students lacking a real training environment during surgical training. conditions, and cannot be extensively trained for specific surgeries. To this end, our team has developed a bionic spine simulator with real-time signal feedback for surgical training in neuroma removal. This research will use 3D printing e model a flexible Piezoresistive sensor, when the neural model encounters pressure changes, the signal can be fed back to the panel immediately.
Innovation Pilot | Biotechnology ＆ Medical careComing soon!
