Motic Plan Achromatic Phase Contrast Microscope Objective UC Ph 40X/0.65/S with 0.6mm Working Distance, Ph2

The Motic Plan Achromatic Phase Objective UC Ph 40X/0.65/S is designed for advanced optical microscopy applications in biotechnology and biomedical research. This *phase contrast* objective lens features a magnification of 40X and a numerical aperture (N.A.) of 0.65, providing enhanced resolution and improved contrast for imaging transparent biological specimens without staining.

Key specifications include:

• Infinity-corrected optical system (CCIS®) for compatibility with modern Panthera (C2, E2, Cloud) series and PA43BIO/PA53BIO series microscopes, widely used in molecular diagnostics and cell imaging.
• Working distance (WD) of 0.60 mm, suitable for live-cell imaging and thin sample preparations.
• Phase ring configuration Ph2, optimized for phase contrast applications targeting medium refractive index specimens common in synthetic biology and bioprocessing workflows.
• Plan achromatic correction minimizes chromatic and spherical aberrations across the field of view for consistent image quality in fluorescence analysis and clinical diagnostics.
• Standard RMS thread (W 4/5" x 1/36") and 45 mm DIN standardized tube length ensure broad compatibility with professional microscopy platforms.
• Designed for use with a coverglass thickness of 0.17 mm, critical for maintaining optical precision in high-resolution microscopy.
• Includes an objective spring for secure mounting and protection against mechanical shocks during routine laboratory operation.

This objective is essential for researchers in neuroscience, molecular biology, and biopharmaceutical production pipelines requiring precise phase contrast microscopy. Its integration into biotechnology laboratories supports applications such as gene editing validation, biomanufacturing process monitoring, and synthetic biology research. The Motic Plan Achromatic Phase Objective UC Ph 40X/0.65/S offers robust optical performance for detailed cellular and subcellular visualization, making it a core component in modern biomedical imaging setups.