Vision Systems Design

Enhancing Image Quality with Melt‑Fit Technology: Customizing Optics to Material Variations

Enhancing Image Quality with Melt-Fit Technology: Customizing Optics to Material VariationsVision Systems Design features an article from Excelitas Optical Design Engineer Thorsten Zwinger that highlights the innovative use of “melt‑fit” optical design. By precisely adjusting mechanical and optical parameters according to real-world glass attributes, the melt‑fit approach ensures a high amount of color-correction, which results in a high-resolution image with high uniformity and minimal sample by sample variation.

In demanding imaging scenarios, such as microscopy, semiconductor inspection, hyperspectral imaging or high‑resolution outdoor imaging, even small batch-to-batch variations in glass (refractive index, dispersion, absorption, etc.) can degrade performance, especially when systems operate near the physical limits of focus and resolution. Rather than rely solely on conventional symmetric optical designs or software-based corrections (which often trade off noise, processing speed, or frame rate), melt-fit integrates real glass characteristics early in the design stage. This involves close collaboration between glass manufacturers and optical designers to tailor lens spacing, curvature and other parameters based on precise batch measurements for a level of consistency and precision that standard manufacturing cannot guarantee.

For users of high‑precision vision systems, melt‑fit means more than just sharper images: it ensures that every device, regardless of the glass batch used, performs to the same exacting standard. Whether for research-grade microscopes, machine‑vision inspection or any application pushing optics to their limits, the melt‑fit approach helps guarantee repeatable, high‑fidelity imaging across production runs.

Read the full article, “Enhancing Image Quality with Melt‑Fit Technology: Customizing Optics to Material Variations,” in Vision Systems Design magazine to discover how this advanced optical-design method can elevate imaging performance and reliability across demanding industrial and scientific applications.