661ff807be8a5d001e9f5f3c Screenshot 20240417 At 10

Case Study: Long Working Distance Microscope Objective Lens

661ff807be8a5d001e9f5f3c Screenshot 20240417 At 10

Key Takeaways:

  • The 50X long working distance microscope objective lens offers high magnification for clear visualization in biomedical and precision testing applications. 
  • Its infinite conjugate design ensures compatibility with various microscopy systems. Specifically engineered for the near ultraviolet (NUV) band, it corrects for the 355nm wavelength, achieving 50% transmittance and excellent achromatic correction. 
  • With a numerical aperture (NA) of 0.65 and a 10mm working distance, it excels in industrial processing. The lens maintains superior performance across the field of view, meeting flat field requirements.

50X Long Working Distance Microscope Objective Lens

Introduction

This 50X infinite conjugated long working distance microscope objective is a widely used lens applicable in various fields such as biomedical, precision testing, sample observation, and more. Its high magnification capability allows for clear visualization and high-resolution observation of extremely small-sized cells, their biological structures, and the internal structures of precision materials.

Designed to meet diverse needs, this objective lens provides precise and detailed observation capabilities across different domains. The infinite conjugate design enhances flexibility, enabling compatibility with various microscopy systems and accessories to meet different experimental and observational requirements. This powerful and versatile tool serves professionals in fields such as biology research, medical diagnostics, and materials science, and contributes to advancements in scientific research and technological development.

To read the entire case study, visit Avantier’s website.

Sponsored Recommendations

Brain Computer Interface (BCI) electrode manufacturing

Jan. 31, 2025
Learn how an industry-leading Brain Computer Interface Electrode (BCI) manufacturer used precision laser micromachining to produce high-density neural microelectrode arrays.

Electro-Optic Sensor and System Performance Verification with Motion Systems

Jan. 31, 2025
To learn how to use motion control equipment for electro-optic sensor testing, click here to read our whitepaper!

How nanopositioning helped achieve fusion ignition

Jan. 31, 2025
In December 2022, the Lawrence Livermore National Laboratory's National Ignition Facility (NIF) achieved fusion ignition. Learn how Aerotech nanopositioning contributed to this...

Nanometer Scale Industrial Automation for Optical Device Manufacturing

Jan. 31, 2025
In optical device manufacturing, choosing automation technologies at the R&D level that are also suitable for production environments is critical to bringing new devices to market...