SWIR Microscope Options for Semiconductor Inspection, Life Science Imaging, and Research
SWIR microscopes combine high-magnification optical microscopy with shortwave infrared imaging so engineers and researchers can see features that are difficult or impossible to detect with visible cameras. Pembroke Instruments configures SWIR and NIR microscope systems using SWIR cameras, microscope optics, illumination, stands, filters, and sample-positioning hardware matched to your field of view, magnification, wavelength range, and working-distance requirements.
Use this page to review SWIR microscope capabilities, common applications, configuration choices, and technical resources. Pembroke can configure vertical, horizontal, breadboard-mounted, and motorized microscope systems for semiconductor inspection, silicon imaging, fluorescence microscopy, materials research, forensics, and custom engineering projects.
Configured SWIR/NIR Microscopes for Your Exact Requirements
If you need SWIR or NIR imaging magnification, Pembroke Instruments can configure SWIR/NIR cameras with microscope optics to deliver the magnification, field of view, illumination method, and working distance needed for your application.
Popular configurations include co-axial illumination microscopes, horizontal inspection microscopes, fluorescence microscopy systems, semiconductor inspection systems, breadboard-mounted setups, and flexible research platforms that support future changes in objectives, light sources, filters, cameras, and sample stages.
- SWIR, NIR, or NIR-SWIR camera selection
- Fixed magnification or zoom microscope optics
- Brightfield, co-axial, LED, laser, or broadband illumination
- Vertical, horizontal, motorized, or breadboard-mounted platforms
- Manual, precision, or motorized X-Y-Z sample positioning
High-performance SWIR/NIR microscope configuration for research and engineering applications.
Find the Right SWIR Microscope Configuration
The best SWIR microscope depends on what you need to see, the required field of view, the wavelength range of interest, the available light, and how precisely the sample must be positioned. Pembroke helps align the camera, optics, illumination, filters, stand, and software around the actual measurement task.
Semiconductor Inspection
Use SWIR microscopy to inspect silicon wafers, packages, MEMS, dies, bonded interfaces, and materials that transmit SWIR light.
View semiconductor applications →Fluorescence Imaging
Configure SWIR microscopes for low-light fluorescence microscopy, live-animal imaging, and research using SWIR-emitting dyes or probes.
View SWIR applications →Materials and Forensics
Reveal hidden layers, coatings, moisture contrast, inks, counterfeit products, minerals, polymers, and material differences not visible to standard cameras.
Why use SWIR? →Custom Engineering Systems
Build a system around required field of view, magnification, working distance, light source, software interface, and mounting constraints.
Discuss your configuration →SWIR Microscope Capabilities
Pembroke Instruments builds SWIR microscopes to your requirements for field of view, working distance, magnification range, illumination geometry, sample positioning, and camera sensitivity. Systems can be configured for laboratory research, industrial inspection, semiconductor analysis, and specialized optical measurement workflows.
Optics and Magnification
- Select field of view, working distance, and magnification range
- Use fixed objectives or zoom-capable configurations
- Four-position turret supports rapid objective changes
- High-stability stand supports high magnification imaging
Illumination and Filters
- Co-axial illumination with LEDs, lasers, or broadband sources
- Support for bandpass and long-pass filter selection
- Laser or fiber-coupled illumination options
- Illumination matched to sample reflection, transmission, or emission
Integration and Control
- Exclusive adapter plate for optical accessories and stages
- Horizontal and motorized configurations available
- Standard optical breadboard mounting options
- Camera software, SDK, LabVIEW, MATLAB, and Micro-Manager considerations
SWIR microscope architecture with selectable camera, illumination, microscope optics, objective turret, focus adjustment, adapter plate, and stable stand.
SWIR Microscope Architecture
A SWIR microscope must be specified as a complete optical system, not just as a camera. The camera sensor, objective lens, zoom optics, illumination source, filters, mechanical stand, and sample positioning hardware all affect image quality and usability.
For example, higher magnification and smaller fields of view deliver less light to the camera sensor, so the microscope may require a more sensitive or TE-cooled SWIR camera. For precision inspection, the stand must provide stable coarse and fine focus without backlash, and the sample mount must provide enough clearance and travel for the required target and stage hardware.
- SWIR, NIR, or NIR-SWIR camera matched to wavelength and sensitivity needs
- High-performance microscope optics and objective lenses
- Co-axial, LED, laser, or broadband illumination path
- Stable stand with coarse/fine focus control
- Adapter plate and breadboard options for optical accessories
SWIR Microscope Configuration Checklist
Before requesting a SWIR microscope quotation, define the requirements below. These inputs help Pembroke recommend a camera, optics, illumination, stand, and software configuration that is aligned with your sample and measurement objective.
SWIR Microscope Applications
SWIR microscopes are useful when visible-light microscopy cannot provide the required material contrast, depth penetration, wavelength response, or detection sensitivity. Below are representative applications where SWIR microscopy can provide high-value imaging information.
| Application | Why SWIR Microscopy Helps | Typical Configuration Considerations |
|---|---|---|
| Semiconductor wafer and package inspection | SWIR wavelengths can transmit through silicon and reveal buried structures, defects, bond interfaces, and internal features. | High magnification optics, stable stand, SWIR-sensitive camera, controlled illumination, and optional precision stages. |
| MEMS, IC, TSV, and advanced packaging analysis | SWIR imaging can help inspect internal semiconductor features without destructive sectioning. | Small field of view, high mechanical stability, careful objective selection, and adequate illumination. |
| Low-light fluorescence microscopy | SWIR-sensitive cameras can detect fluorescence emission in NIR/SWIR wavelength bands for research imaging. | Low-noise or cooled camera, excitation source, emission filters, and software for acquisition and analysis. |
| Live-animal and life science imaging | Longer wavelengths may support reduced scattering and improved imaging performance in selected research workflows. | Sensitive camera, biological imaging illumination, appropriate filters, and low-light acquisition software. |
| Forensics, art, and counterfeit detection | SWIR can reveal inks, underdrawings, layers, coatings, and material differences not apparent in visible images. | Broadband or wavelength-specific illumination, filters, flexible field of view, and image documentation workflow. |
| Polymers, minerals, and material research | SWIR contrast can expose absorption, transmission, moisture, or composition differences across materials. | Wavelength selection, filter options, sample handling, and camera response matched to material features. |
SWIR Camera Selection for Microscopy
The SWIR camera is a core part of the microscope. Sensor format, pixel size, noise performance, cooling, spectral range, and data interface all affect resolution, sensitivity, frame rate, and software workflow.
High Resolution
For larger fields of view or detailed inspection, use high-resolution SWIR cameras such as 1.3 MP or 2 MP sensor formats.
View 2 MP SWIR cameras →High Sensitivity
For fluorescence, small fields of view, or lower light levels, consider TE-cooled SWIR cameras with strong low-noise performance.
View cooled SWIR cameras →Fast Imaging
For dynamic inspection or real-time setup, choose a SWIR camera with the appropriate frame rate and data interface.
View VGA SWIR cameras →SWIR Microscope Resources and Technical Guides
Selecting and integrating a SWIR microscope requires understanding detector response, wavelength range, optical design, illumination, working distance, sample positioning, and software workflow. Pembroke Instruments provides technical resources to help engineers and researchers define system requirements before purchase.
- How to Configure a SWIR Microscope for Your Application - technical guide covering field of view, spectral range, magnification, working distance, illumination, sensor selection, software, microscope stand, and sample mounting.
- SWIR vs. Thermal Microscopes - comparison of SWIR microscopy and thermal microscopy for semiconductor, electronics, materials, and research applications.
- Applications for SWIR and Thermal Microscopes - examples of SWIR and thermal microscope use in semiconductor and electronics inspection.
- The Physics of SWIR Imaging - fundamentals of SWIR wavelength interaction, material transparency, and detector response.
- SWIR Optics and System Design - lens selection, coatings, working distance, wavelength range, and system configuration considerations.
- SWIR Integration, Calibration, and Image Processing - practical guidance for integrating SWIR cameras into measurement and inspection systems.
Request a SWIR Microscope Quotation
Send Pembroke Instruments your application details, target sample information, wavelength range, required field of view, working distance, magnification range, illumination needs, sample-stage requirements, and preferred software environment. Pembroke will help define a SWIR microscope configuration aligned with your technical and budget requirements.