Michal Lipson

This inventor holds 85 USPTO granted patents and 17 published patent applications and 2 EPO patents, primarily in Optical Frequency Combs (CPC class G02B6-12007). Top assignees: Cornell University, Columbia University, Massachusetts Institute of Technology. Active years: 2003-2026.

USPTO Granted Patents = 85 (Patent Applications = 17)

% Patents Active = 80.0

EPO Patents = 2 (Patent Applications = 5)

Average Co-Inventor Count = 3.3

ph-index = 11

Forward Citations = 419(Granted Patents)

Forward Citations (Not Self Cited) = 379(Dec 10, 2025)

Inventors with similar research interests:

Yusheng Bian

Location History:

Waltham, MA (US) (2003 - 2007)
Ithaca, NY (US) (2006 - 2020)
New York, NY (US) (2018 - 2024)

Company Filing History:

Massachusetts Institute of Technology

California Institute of Technology

patents

7. 1 out of 196

Cold Spring Harbor Laboratory

Leland Stanford Junior University

The State University of New York

patents

12. 1 out of 1,053

The University of Arizona

patents

13. 1 out of 163

University Court of the University of St. Andrews

patents

14. 1 out of 994

University of Rochester

patents

where one patent can have more than one assignee

Years Active: 2003-2026

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Areas of Expertise:

Optical Frequency Comb

Integrated Waveguides

Photonic Structures

Cryogenic Optoelectronics

Beam Steering

Microresonators

Optical Coherence Tomography

Light Modulation

Wavelength Multiplexing

Gas Sensors

Evanescent Coupling

Mid-Infrared Sources

85 patents (USPTO):Sort by Forward CitationsExplore Patents

1. 12640472 - Beam steering and receiving method based on an optical switch array (2026-05-26),

2. 12504668 - Fully integrated chip platform for electrically pumped frequency comb generation (2025-12-23),

3. 12474158 - Microresonator-frequency-comb-based platform for clinical high-resolution optical coherence tomography (2025-11-18),

4. 12449713 - Low frequency wave generation via optical frequency division (2025-10-21),

5. 12395767 - Low-power integrated beam steering switch matrix platform (2025-08-19),

6. 12326622 - Thermally tunable low broadband waveguides and related systems and methods (2025-06-10),

7. 12300963 - Tunable optical frequency comb generator in microresonators (2025-05-13),

8. 12009869 - System and method for cryogenic optoelectronic data link (2024-06-11),

9. 11984665 - Beam steering and receiving method based on an optical switch array (2024-05-14),

10. 11870216 - Compact narrow-linewidth integrated laser (2024-01-09),

11. 11859972 - Microresonator-frequency-comb-based platform for clinical high-resolution optical coherence tomography (2024-01-02),

12. 11835803 - Controlling evanescent waves on dielectric waveguides (2023-12-05),

13. 11733455 - Amplitude and phase light modulator based on miniature optical resonators (2023-08-22),

14. 11662643 - Chip-scale optical phased array for projecting visible light (2023-05-30),

15. 11621786 - System and method for cryogenic optoelectronic data link (2023-04-04),

Title: The Innovative Journey of Michal Lipson

Introduction: Michal Lipson, a renowned inventor based in Ithaca, NY, is a pioneering figure in the field of photonics and nanoscale optics. His groundbreaking work has significantly advanced the development of photonic devices and integrated nanophotonic circuits.

Latest Patents: Michal Lipson holds several patents related to nanophotonics, including patents for novel photonic devices, optical communication systems, and integrated photonics technologies. His innovative solutions have paved the way for faster and more efficient optical communication networks.

Career Highlights: With a distinguished career in academia and research, Michal Lipson is currently a Professor of Electrical Engineering at Cornell University. He has received numerous accolades for his contributions to the field of photonics, including being elected as a member of the National Academy of Engineering.

Collaborations: Michal Lipson has collaborated with leading researchers and institutions worldwide to further the development of nanophotonic technologies. His collaborative efforts have resulted in significant advancements in the field, with applications ranging from telecommunications to biomedical imaging.

Conclusion: Michal Lipson's innovative work in the field of photonics has had a profound impact on the way we harness light for various technological applications. His contributions continue to inspire future generations of researchers and inventors in the field of nanophotonics.