New Haven, CT, United States of America

Nicholas Frattini


 

Average Co-Inventor Count = 5.9

ph-index = 1

Forward Citations = 3(Granted Patents)


Company Filing History:


Years Active: 2023-2025

Loading Chart...
Loading Chart...
3 patents (USPTO):Explore Patents

Title: Innovations of Nicholas Frattini

Introduction

Nicholas Frattini is a prominent inventor based in New Haven, CT (US). He has made significant contributions to the field of quantum oscillators, holding a total of 3 patents. His work focuses on advancing the understanding and functionality of quantum systems.

Latest Patents

Frattini's latest patents include the "Driven Kerr Nonlinear Oscillator and Related Systems and Methods." This patent describes techniques for designing and operating a quantum oscillator that operates efficiently with less bare nonlinearity than traditionally required. The oscillator can be driven at a frequency that is detuned from the conventional operating frequency, resulting in a well-behaved oscillator with longer coherence times. Another notable patent is the "Josephson Nonlinear Circuit," which addresses the challenges of frequency shifts in superconducting quantum information processing. This invention features a Josephson four-wave mixing device that cancels out negative Kerr effects while maintaining parametric four-wave mixing capabilities.

Career Highlights

Frattini is affiliated with Yale University, where he continues to push the boundaries of quantum technology. His innovative approaches have garnered attention in the scientific community, contributing to advancements in quantum information processing.

Collaborations

He has collaborated with notable colleagues such as Michel Devoret and Shyam Shankar, further enhancing the impact of his research in the field.

Conclusion

Nicholas Frattini's work exemplifies the cutting-edge innovations in quantum technology, showcasing his commitment to advancing the field through his patents and collaborations. His contributions are paving the way for future developments in quantum oscillators and information processing.

This text is generated by artificial intelligence and may not be accurate.
Please report any incorrect information to support@idiyas.com
Loading…