SID4 UV HR High Resolution UV Wavefront Sensor 190-400nm 26µm

Specifications

Wavelength Range: 190 – 400 nm
# Pixels (Width): 512
# Pixels (Height): 512
Lenslet Pitch: 26 um
Wavefront Accuracy: <= lambda/30
Type: Lateral Shearing
Aperture Dimension: 13.3 x 13.3 mm²
Spatial Resolution: 26 µm
Phase And Intensity Sampling: 512 x 512
Phase Resolution: <2 nm RMS
Absolute Accuracy: 20 nm RMS
Frame Rate: 10 Hz
Real-time Processing Frequency: 3 Hz (full resolution)
Interface: 10GigE
Dimensions (W X H X L): 80.3 x 78.6 x 108.2 mm³
Weight: ~ 600 g

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Features

  • Wide UV Wavelength Range: Operates from 190 nm to 400 nm, ideal for deep and near-UV applications.
  • High Spatial Resolution: 26 µm spatial resolution enables precise wavefront measurements for demanding optical systems.
  • Large Aperture: 13.3 x 13.3 mm² aperture supports large pupil measurements and high throughput.
  • High Phase and Intensity Sampling: 512 x 512 sampling grid for detailed phase and intensity mapping.
  • Exceptional Phase Resolution: Less than 2 nm RMS phase resolution for ultra-precise metrology.
  • Superior Absolute Accuracy: 20 nm RMS absolute accuracy ensures reliable and repeatable results.
  • Fast Frame Rate: Up to 10 Hz frame rate for dynamic measurements and real-time feedback.
  • Real-Time Processing: 3 Hz full-resolution real-time processing for immediate data analysis.
  • High-Speed Data Interface: 10GigE connectivity for rapid data transfer and integration into advanced systems.
  • Compact and Lightweight Design: Dimensions of 80.3 x 78.6 x 108.2 mm³ and weight of approximately 600 g for easy integration.
  • Large Dynamic Range: Capable of measuring a wide range of wavefront aberrations, suitable for diverse applications.
  • Robust Construction: Engineered for stability and reliability in laboratory and industrial environments.
  • Ideal for UV Optics Characterization: Perfect for testing and alignment of UV lasers, lithography systems, and scientific instrumentation.

Applications

  • UV Optical System Alignment: Precisely align and optimize ultraviolet (UV) optical systems, including telescopes, microscopes, and spectrometers, by measuring and correcting wavefront aberrations in the 190–400 nm range.
  • Laser Beam Characterization: Analyze and optimize the quality of UV laser beams in research, industrial, and medical applications by providing high-resolution wavefront and intensity measurements.
  • Semiconductor Lithography: Enhance the performance and yield of photolithography equipment by monitoring and correcting wavefront distortions in deep UV (DUV) lithography processes.
  • Metrology for UV Optics Manufacturing: Perform precise quality control and metrology of UV lenses, mirrors, and other optical components during manufacturing and assembly.
  • Adaptive Optics Systems: Integrate into adaptive optics setups for real-time correction of wavefront errors in UV imaging and laser systems.
  • Scientific Research: Support advanced research in physics, chemistry, and biology by enabling accurate UV wavefront measurements for experiments involving fluorescence, spectroscopy, and photonics.
  • Synchrotron and Free Electron Laser Facilities: Monitor and optimize the wavefront quality of UV and extreme UV (EUV) beams used in synchrotron radiation and FEL experiments.
  • Space and Astronomy Applications: Calibrate and align UV instruments and telescopes for space missions and astronomical observations, ensuring optimal image quality and data accuracy.
  • UV Microscopy: Improve the resolution and contrast of UV microscopes by correcting optical aberrations and ensuring precise wavefront control.
  • Nonlinear Optics and Ultrafast Laser Research: Characterize wavefronts in experiments involving UV generation through nonlinear processes, such as harmonic generation and parametric conversion.
  • Quality Assurance in UV Coating Processes: Evaluate the uniformity and performance of UV coatings on optical surfaces by detecting phase and intensity variations.
  • Industrial Process Monitoring: Integrate into manufacturing lines for real-time monitoring and feedback control of UV-based processes, such as laser micromachining and materials processing.