Simplifying Semiconductor Research
LITHO MASKLESS
Redefining Lithography, Without the Mask
LITHO MASKLESS is a compact tabletop lithography system
that Utilizes a UV LED-based DLP engine for mask-free patterning. Designed for simplicity and precision, it brings microfabrication out of the cleanroom and any research or education space.
Section Key Features
Easy to Research
Easy to Use
proprietary software enables maskless lithography in just a few clicks, No prior expertise required. Designed as a modular add-on, it seamlessly mounts onto microscopes, bringing advanced lithography to your existing lab setup.
Easy Pattern Customization
Adjust pattern sizes and resolutions freely to suit diverse experimental needs. PLANCK LAB gives you the flexibility to design as precisely or as creatively as your research demands.
Easy High Resolution
Equipped with a high-power UV light source and a precision DMD chip, it achieves sub-micron resolution (<1µm), ensuring fast and accurate patterning for advanced research.
Easy Alignment
Real-time camera integration and an intuitive UI simplify the alignment process. Even first-time users can quickly and confidently align samples with high accuracy.
Easy Light Uniformity
AI-powered light uniformity correction ensures consistent pattern quality across the substrate optimized for repeatability, reliability, and research-grade results.
Easy to Set Up, Cleanroom-Free
Its compact design makes advanced lithography possible in any lab environment. All you need is a compatible standard microscope and the PLANCK LABs module. Enjoy up to 95% cost savings compared to conventional photolithography systems.
Trusted by Scholars, Cited by Journals
Studies on diverse patterns in the micrometer scale
Jeong, H., Cho, G. H., Yoo, J., Lee, S. M., Salas-Montiel, R., Ko, H., ... & Jeong, M. S. (2024). Strain-sensitive optical properties of monolayer tungsten diselenide. Applied Surface Science, 653, 159382.
Jeong, H., Suh, H. C., Cho, G. H., Salas-Montiel, R., Ko, H., Kim, K. K., & Jeong, M. S. (2024). Platform for surface-enhanced Raman scattering in layered quantum materials. Applied Surface Science, 646, 158823.
Hydrogel MEMS Resonators
Yoon, Y., Chae, I., Thundat, T., & Lee, J. (2019). Hydrogel Microelectromechanical System (MEMS) Resonators: Beyond Cost-Effective Sensing Platform. Advanced Materials Technologies, 4(3), 1800597.
Neuromorphic research via electrode patterning
Tominov, R., Vakulov, Z., Kazantsev, V., Prakash, C., Rodriguez, D., & Smirnov, V. (2024, September). Synaptic plasticity in the nanocrystalline ZnO cross-point for neuromorphic systems of AI. In 2024 8th Scientific School Dynamics of Complex Networks and their Applications (DCNA) (pp. 235238). IEEE.
Worldwide Academic Presence
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Countries
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Journals
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Universities & Institutes
Specifications & Applications
Technical Specifications
Item
Spec
Pattern Generator
0.65 DMD (Native 1920×1080px)
Exposure Intensity
Max 160mW/cm² @20x
Light Source
UV LED
Wavelength
365nm / 385nm / 405nm
Camera
1/1.8 CMOS sensor
Ports Requirement
USB 2.0, HDMI, USB 3.0*
Power
110V or 220V, 60W
Image Format
PNG/BMP/JPG
Operating OS
Windows 10 or 11
Machine Size (for Olympus BX53M)
Module : 165 × 120 × 80 mm
Full System: 600 × 260 × 470 mm
Technical Specifications
Objectives
5x (NA 0.15)
10x (NA 0.30)
20x (NA 0.45)
50x (NA 0.75)
100x (NA 0.90)
Resolution (µm/px)
1.52
0.76
0.38
0.15
0.08
Maximum Pattern Size (µm)
2910 × 1640
1450 × 820
730 × 410
290 × 160
145 × 80