Nucleic Acid Analyzer Substrate With Microstructure Bead Alignment

The substrate is divided into multiple regions with different microparticle densities. High-density regions are placed where sensor pixels can efficiently detect fluorescence, while low-density regions reduce the total number of detectable particles. This segmentation allows the system to analyze fewer particles at ultra-high density locations, reducing data transmission time while maintaining overall high throughput.

Different areas of the substrate have different microparticle densities optimized for their specific detection purposes. Regions closer to the sensor have higher density for maximum particle capture, while other regions have lower density to reduce redundant data. This local optimization of particle density allows the system to achieve high throughput without requiring all pixels to process data from equally dense regions.

The substrate is divided into multiple regions with different microparticle densities. Ultra-high density regions are strategically placed where the optical system can efficiently collect fluorescence without requiring large numerical aperture lenses. Lower density regions are distributed elsewhere, allowing the system to achieve high overall throughput while using simpler, less expensive optical components.

The microparticle density is locally optimized across different substrate regions. Instead of uniformly high density throughout, the system concentrates particles in specific high-density zones that can be effectively detected by the available optical system, while other regions have reduced density. This allows high productivity without requiring expensive high-NA condensing lenses for the entire substrate area.

The substrate is segmented into regions with optimized microparticle densities that account for fluid flow dynamics. Regions with higher particle density are positioned where solution flow resistance is minimized, reducing the force that would cause bead peeling. This spatial segmentation allows ligation reactions to proceed effectively while maintaining bead stability during solution application.

The microparticle density and distribution are locally optimized to match the fluid flow characteristics of the reaction system. Areas experiencing higher shear stress from solution flow have adjusted particle densities and positioning that reduce peeling forces, while still maintaining sufficient particle concentration for effective ligation reactions. This local optimization balances reaction performance with immobilization stability.