Jason E. Johnson
Engineering · Purdue University West Lafayette
Publications
24
Citations
245
Est. group size
~5
Recurring co-author estimate
Active years
50
Publishing since 1977
Jason E. Johnson's research focuses on high-speed 3D printing methods that use lasers and light-based chemistry to build extremely small, precise structures, a field often called multi-photon lithography or nanoprinting. Recent work combines optical engineering with machine learning (such as Bayesian optimization and neural networks) to improve the accuracy and speed of these 3D printing processes, along with related work on printing glass and photonic (light-based) devices. This research is relevant to students interested in optics, materials engineering, and applying computational methods to manufacturing problems.
Publication output has been modest but fairly steady over the last decade, with a slight increase in the most recent two years (2024-2025) after a variable earlier period.
Generated by claude-sonnet-5 from public bibliographic data · Jul 20, 2026
- Modeling and Improving Geometric Accuracy in Projection Multiphoton Lithography
Advanced Optical Materials · 2026
- Bayesian Optimization of Grayscale Patterns for Layer‐Height Accuracy in Projection Multi‐Photon 3D Printing
Laser & Photonics Review · 2026
- Bayesian optimization with Gaussian-process-based active machine learning for improvement of geometric accuracy in projection multi-photon 3D printing
Light Science & Applications · 2025
- Convolutional autoencoder frameworks for projection multi-photon 3D printing
Additive manufacturing · 2025
- Bayesian optimization with Gaussian-process-based active machine learning for projection multi-photon 3D printing
2025
- Convolutional neural networks for projection multi-photon 3D printing
2025
- Convolutional Autoencoder Frameworks for Projection Multi-Photon 3d Printing
SSRN Electronic Journal · 2025
- Two-color 3D printing for reduction in femtosecond laser printing power
Optics Express · 2024
- Two color 3D printing for reduction in femtosecond laser printing power
2024
- Unlocking Larger Scales and Aspect Ratios in 3D Printed Glass: Coupling Active Mixing and UV Curing for Advanced Printability and Crack Resistance
Advanced Materials Technologies · 2024
- Photo‐activated polymerization inhibition process in photoinitiator systems for high‐throughput 3D nanoprinting
Nanophotonics · 2023
- Spatiotemporal focusing and imaging of ultrafast laser pulses for rapid, continuous 3D nanoprinting
2023
- Model for polymerization and self-deactivation in two-photon nanolithography
Optics Express · 2022
- Modeling of polymerization in projection-based two-photon 3D printing
2022
- High-speed 3D nanoprinting using continuous, layer-by-layer projection two-photon lithography
2022
- Light Science & Applications×2
- Optics Express×2
- ACS Applied Polymer Materials×1
- Nanophotonics×1
- Additive manufacturing×1
- Xueru Zhang
Engineering · The Ohio State University
- Derek J. Hansford
Engineering · The Ohio State University
- Michael Lee
Engineering · The Ohio State University
- Yujie Shan
Engineering · Purdue University West Lafayette
- Gary J. Cheng
Engineering · Purdue University West Lafayette
This profile was generated automatically from public scholarly data (OpenAlex). Group size and activity levels are estimates derived from co-authorship patterns.
Last updated Jul 20, 2026.
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