A LinkedIn post from QuEra Computing highlights recent MIT-covered research by Henry Wen, now a Senior Photonics Engineer at the company. The post discusses a Nature article on “nanophotonic waveguide chip-to-world beam scanning,” which proposes a “photonic ski-jump” structure to improve how light exits photonic chips into free space.
Claim 30% Off TipRanks
- Unlock hedge fund-level data and powerful investing tools for smarter, sharper decisions
- Discover top-performing stock ideas and upgrade to a portfolio of market leaders with Smart Investor Picks
According to the post, this nanoscale waveguide on a piezoelectric cantilever curls 90 degrees out of plane, acting as an efficient converter between time-bin modes in the chip and spatial modes in free space. The approach is presented as scalable, with potential for multiple waveguides per cantilever and tiled arrays across a chip surface.
The post notes demonstrations including full-color video projection and single-photon control of silicon vacancy centers in diamond, suggesting applicability to quantum and advanced optical systems. QuEra’s commentary emphasizes the conceptual shift toward treating the chip as a three-dimensional “microscopic optics table,” enabling repeated transitions between guided and free-space modes.
For investors, this content may signal QuEra’s interest in cutting-edge photonic integration that could address long-standing input–output bottlenecks in photonic and quantum hardware. If such architectures prove practical, they could improve scalability and performance of future quantum and photonic systems, potentially reinforcing QuEra’s position in high-end quantum technology research and development.

