Nikon Ti2-U Inverted LED Fluorescence Microscope with Dual Fluorescence Turrets and Dual Illumination Paths

The Nikon Ti2-U Inverted LED Fluorescence Microscope is engineered for advanced live-cell imaging, multi-channel fluorescence analysis, and brightfield microscopy applications commonly required in molecular diagnostics, biotechnology, and biomedical research. Featuring the Eclipse Ti2-U platform, this system integrates dual 6-position fluorescence filter turrets and dual fluorescence illumination paths—one path with a collimating adapter and 3mm LLG, and a second adaptable to customer-provided light sources, facilitating versatile excitation configurations essential for synthetic biology and molecular cloning workflows.

Key technical specifications include:

Customization options include motorized stages, Z-axis drives, high-end CCD/sCMOS/EMCCD camera upgrades, additional illumination types (Xenon, Metal Halide), and expanded optical configurations (Phase Contrast, DIC, Polarization), allowing tailoring of the system to specific biomedical engineering or clinical diagnostics applications.

This microscope is widely utilized for routine cell culture analysis, multiplex staining assays, cancer and stem cell research imaging, and fluorescence-based quantification workflows vital in molecular diagnostics and biotechnology research domains.

Comprehensive service and quality assurance practices, including preventive maintenance, optical alignment verification, and fluorescence intensity calibration at the specimen plane, ensure reliable imaging performance. The system is shipped with a warranty and offers remote training for operation and software use, aligning with the demands of academic, pharmaceutical, and biopharmaceutical production laboratories.

This Nikon Ti2-U microscope represents a sophisticated solution for researchers requiring precision fluorescence microscopy integrated with flexible illumination and imaging modalities, optimized for biotechnology-intensive workflows such as gene editing validation, synthetic biology experimentation, and high-throughput molecular assays.