The acceleration of AI computation and optical communication has driven the rapid evolution of integrated photonic chips, where photons — not electrons — transmit data across architectures. As photonic integration density increases, optical confinement, interlayer dielectric quality, and thermal management become critical design challenges.

Quantum computing demands materials that can maintain coherence, stability, and precision at the atomic level. Every interface — from dielectric layers to optical windows — directly influences qubit lifetime, gate fidelity, and system scalability.

Nowadays, authoritative academic journals Science and Nature publish over a dozen studies on 3D printing technology every year, but not many have truly achieved commercial applications. The most successful commercialized 3D printing Science level research is the article "Continuous liquid interface production of 3D objects" published on March 20, 2015.

Introduction to Digital Droplet Microfluidic Platform


The digital droplet microfluidic platform consists of three parts: a droplet controller (Figure 1), droplet control software (Figure 2), and a digital microfluidic chip (Figure 3). It can be used for digital droplet microfluidic control and can control a series of unit operations such as droplet transfer, mixing, and splitting on the software operation interface.