The core innovation lives in what SpectraEyes calls the Real-Time Dual-Screen Synchronization System. Rather than attempting to merge thermal and night vision into a single confused image, the optics route each feed to its own dedicated 1280×720 LCD screen inside the binocular housing.
Across various fields, from spatial mapping for reconnaissance and construction to facial recognition, virtual and augmented reality and autonomous driving, accurate 3D representation of dynamically evolving environments is paramount for safe human-machine interaction. Therefore, substantial research efforts are directed towards developing a cost-effective, high-performance and scalable 3D imaging sensor comparable with a CMOS camera.
Laboratory safety goggles have finally joined the ranks of smart devices. That's the promise behind LabOS, an AI operating system for scientific laboratories built by the Stanford-Princeton AI Coscientist Team, a group led by Stanford University bioengineer Le Cong and Princeton University computer scientist Mengdi Wang, with founding partners that include NVIDIA. Powered by NVIDIA's vision-language models to process visual data, the system is designed to provide AI with real-time knowledge of lab work so it can determine what causes experiments to fail or succeed and rapidly train new scientists to expert levels by guiding them through experimental protocols.
The company is building directly on its major success supplying its waveguide technology to glasses, and proving that geometric waveguides work at consumer scale with standard glass. At CES, Lumus showcased a ZOE prototype with a field of view of more than 70 degrees, an optimized Z-30 with 40% more brightness, and a Z-30 2.0 preview that's 40% thinner. David Goldman, VP of marketing, walked me through each demo with clear enthusiasm about the progress Lumus is making.
Here we addressed this challenge by incorporating an intrinsically stretchable exciplex-assisted phosphorescent (ExciPh) layer. The elastomer-tolerant triplet-recycling mechanism mitigates exciton energy transfer limitations arising from the insulating elastomer matrix, yielding a light-emitting layer with more than 200% stretchability and an external quantum efficiency (EQE) of 21.7%. To translate this performance to fully stretchable devices, we integrated MXene-contact stretchable electrodes (MCSEs), which feature high mechanical robustness and tunable work function (W