Parallel Microscope Assembly for High-Throughput Microplate Imaging

The system divides the microplate into multiple regions that can be imaged simultaneously by multiple objectives working in parallel. Each objective captures a specific region, and the images are stitched together to form a complete view, enabling high-speed screening without sacrificing image quality.

The patent transitions from single-objective sequential imaging to multi-objective parallel imaging by adding spatial dimensionality. Multiple objectives are positioned at different locations to capture multiple fields of view simultaneously, fundamentally changing the imaging architecture from one-dimensional sequential to multi-dimensional parallel processing.

The system segments the large field-of-view into multiple smaller regions, each captured by a separate objective at high magnification. The individual high-resolution images are then computationally stitched together to reconstruct the complete large-area view, preserving both coverage and resolution.

Multiple high-magnification images from different objectives are merged and stitched together to create a composite image that covers a large area while maintaining the high resolution of individual regions. This combining process achieves both wide coverage and high magnification simultaneously.

The microplate is segmented into multiple regions that can be imaged in parallel by multiple objectives. Instead of sequentially imaging each region with a single objective, the system simultaneously captures multiple regions, dramatically reducing the total number of imaging cycles required for complete microplate coverage.

The system maintains continuous imaging action across multiple regions simultaneously rather than pausing between sequential regions. Multiple objectives operate continuously and concurrently to capture the entire microplate in fewer cycles, eliminating idle time and maintaining uninterrupted useful action throughout the screening process.