Three-Dimensional Optical Wave Field Microscope mv_name.png

See What Matters—Faster and More AccuratelyA Unique Microscopy Approach for Advanced Visualization and Quantification

Examples
  • Films

  • Optical Waveguides
  • Cells
  • Glass
  • Gels
  • Protein Aggregates

Detection Targets
  • Scratches

  • Voids
  • Core Structures
  • Fillers
  • Cell Morphologies
  • Refractive Index Variations

Observation Modes
  • OPD

  • Bright Field
  • Amplitude
  • OPD Edge 
  • Edge 
  • Differential

Concept Behind the Development of MINUK

Conventional Approach
Seeing Through Lenses
Observing the world through lenses has long been the foundation of microscopy. To obtain information as close to reality as possible, continuous advances in optics, image processing, computational analysis, and precision engineering have been pursued.
New Approach
Reveal the Invisible. Predict the Future.
Capture optical information directly
and compute how light waves propagate. Advanced high-speed computation visualizes the invisible, revealing the true nature of the target.

Challenges of Conventional Microscopes

  • A limited field of view makes locating foreign particles and defects time-consuming.
  • The inability to determine target depth requires repeated imaging to locate the area of interest.
  • Invisible nanometer-scale changes remain difficult to detect.

WithMINUK,

Three-Dimensional Optical Wave Field Microscope MINUK
Place-and-Go 3D Imaging Non-Contact. Non-Destructive.No Physical Focusing Required. Observe and measure any point of interest, anytime.
When a laser beam illuminates the target, variations in thickness and refractive index alter the optical wavefront. A wavefront sensor captures these changes, and our unique software uses advanced numerical analysis to reconstruct and visualize the object's internal structure.
Wavefront Sensor

Use Cases

Discover the Technical Challenges That Only MINUK Can Solve

Features

Quickly and easily measure the surface and internal features of transparent objects.
  1. Feature 01 Wide 700 μm field of view and high 488 nm resolution
    Quickly locate foreign substances in the measurement target without the need for time-consuming searching.

    With conventional systems, the narrow field of view often requires extensive searching to locate foreign particles and defects. MINUK overcomes this challenge by directly recording sample light without an imaging optical system,
    fundamentally eliminating lens aberrations. The result is aberration-free imaging with a wide field of view and exceptional depth of field, making defect detection faster and more efficient.
    Quickly locate foreign substances in the measurement target without the need for time-consuming searching.
  2. Feature 02 Capture complete information across a 1,400 μm depth range
    Slice and visualize data at any desired depth. A single measurement captures information equivalent to thousands of images.

    Conventional systems require repeated image acquisition—sometimes thousands of images—because the depth of the target region is unknown. MINUK instantly captures information across a 700 × 700 μm field of view and a depth range of 1,400 μm. The acquired data yield approximately 700 slice images with a resolution of about 2 μm and can be digitally refocused for further verification of three-dimensional structures.
    Conceptual image of acquired data
  3. Feature 03 Visualize 3D distributions of transmittance and refractive index, and quantify invisible nanoscale surface geometry.

    Conventional methods often made accurate focusing difficult, limiting quantitative analysis. MINUK overcomes these challenges by enabling quantification of invisible nanoscale surface geometry and detection of subtle refractive index variations.
    Visualize 3D distributions of transmittance and refractive index, and quantify invisible nanoscale surface geometry.

Video


MINUK Product Introduction
How to Use MINUK

Specifications

Resolution (x, ý) 691 nm (One Shot), 488 nm (Composition)
Field of view (x, ý) 700 × 700 μm
Resolution (Z) 10 nm (Retardation)
Field of view (Z) ±700μm
Sample size 100 × 80 × t20 mm (with Versatile Sample Holder)
Sample stage Motorized fine XY stage
X:±10mm Y:±10mm
Coarse Stage
X:129mm Y:85mm
Laser Wavelength: 638 nm
Output power: ≤ 0.39 mW, Class 1 (at the sample)
Dimensions
(W × D × H): mm
Main unit: 505 × 630 × 439
*PC and accessories not included.
Weight 41kg
Power consumption Main unit: 290 VA
*PC and accessories not included.

Otsuka Electronics
Members Site

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