Discover What We Do

Senslogic is a consulting company that specializes in optical system design, with focus on demanding applications and how to design and build systems that meet design requirements.


We can support you from idea to production including tools developed with assembly of diffraction limited systems in mind.

Specializing in wavefront metrology, interferometry, spatial light modulators, and lithography.

If you're in need of solutions that includes optics, software, a camera, and perhaps features moving parts, you've come to the right place.

     Optical System Design     

Bringing optical system to perform according to design requirements. Specializing in maskless lithography.

  • Statistical system analysis for traceable specifications

  • Physical optics

  • Lens Design

Our Services

Custom Metrology Solutions

Adapting and integrating inter-ferometry and wavefront sensing to ensure that systems reach and maintain their performance.

  • Shack-Hartmann wavefront sensing

  • Phase-Shifting Interferometry

  • Flexible software to support optical system integration and automated metrology

   Spatial Light Modulators   

Design optical systems that can make the best use of the optical quality and performance capabilities of SLMs.

  • 1D and 2D MEMS

  • Spatial coherence control

  • LCOS

Customers & Experience

  • Optical system design, spatial light modulators & lithography

  • Wavelength Selective Switch design and LCOS micro-displays

  • Head of spatial light modulator business unit

  • Optics expert, spatial light modulators and interferometry

Featured
The Big Picture About Senslogic
The Big Picture About Senslogic

This blog dives deep into the philosophy of Senslogic and what we are trying to accomplish accomplish, and how the WaveMe toolbox fits into this picture.

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Shack-Hartmann Wavefront Sensor Calibration in WaveMe
Shack-Hartmann Wavefront Sensor Calibration in WaveMe

Describing the novel approach to calibration used in the WaveMe Shack-Hartmann module that enables point-and-shoot approach to wavefront metrology.

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Analyzing Coupled Systems
Analyzing Coupled Systems

This blog post discusses how to analyze optical systems when its parameters cannot be treated independently.

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Designing a point diffraction interferometer
Designing a point diffraction interferometer

This tech talk goes into the details of designing and using a phase-shifting point diffraction interferometer. This is an easy to build and insensitive high-accuracy tool that removes all guess-work from understanding the optical performance of any high-end optical projection system.

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WaveMe for Optical Alignment: The BeamNotes Tool
WaveMe for Optical Alignment: The BeamNotes Tool

WIth the BeamNotes and WaveMe Toolbox , the days of alignment targets and business cards is over. And let’s face it, we are all human in the lab and factory floor, and optical engineering is unforgiving. The BeamNotes tools supports topics ranging from ERP integration to coffee breaks, to keep you on track and on target, actaully without any alignment targets. Curious? Have a look.

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REALHOLO - MORE THAN MEETS THE EYE
REALHOLO - MORE THAN MEETS THE EYE

RealHolo is an EU-funded project aiming to produce a reflective, micro-mirror array, spatial light modulator with the aim to “pave the way for mainstream mixed reality environments”. There is however much more in the possible future of this device.

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WaveMe's Evolution: Harnessing Tools and Techniques for Peak Performance
WaveMe's Evolution: Harnessing Tools and Techniques for Peak Performance

Dive into WaveMe's transformative journey, where cutting-edge tools like Valgrind meet astute optimization strategies, all to ensure peak performance. Discover how WaveMe strikes the balance between powerful functionalities and compatibility with everyday lab computers. A tale of technical evolution awaits.

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Introduction to Goodman’s Graphical Methods
Introduction to Goodman’s Graphical Methods

Goodmans graphical methods offer an intuitive insight into the physical optics of partially coherent imaging, which is otherwise left to computer simulations. This Introduction will make the reader comfortable with the formalism and hight perhaps one of the most basic difference between incoherent and partially coherent imaging.

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