Thomas Rueckes

USPTO Granted Patents = 186 (Patent Applications = 6)

CIPO Patents = 7 (Patent Applications = 2)

EPO Patents = 11 (Patent Applications = 5)

Average Co-Inventor Count = 3.8

ph-index = 35

Forward Citations = 4,556(Granted Patents)

Inventors with similar research interests:

Location History:

Portland, OR (US) (2007 - 2009)
Watertown, MA (US) (2003 - 2011)
Boston, MA (US) (2004 - 2014)
Carmel Valley, CA (US) (2016)
Rockport, MA (US) (2006 - 2018)
Byfield, MA (US) (2014 - 2023)

Company Filing History:

6. 2 out of 832,680

Other

patents

Years Active: 2003-2023

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186 patents (USPTO):Sort by Forward Citations

Abstract keywords

1. 11643763 - Scalable nanotube fabrics and methods for making same (2023-05-09),

2. 11462686 - Three-dimensional array architecture for resistive change element arrays and methods for making same (2022-10-04),

3. 11387277 - Electrostatic discharge protection devices using carbon-based diodes (2022-07-12),

4. 11258023 - Resistive change elements using passivating interface gaps and methods for making same (2022-02-22),

5. 11177261 - Nonvolatile nanotube switch elements using sidewall contacts (2021-11-16),

6. 11174166 - Methods for forming porous nanotube fabrics (2021-11-16),

7. 10885978 - Nonvolatile nanotube switches with reduced switching voltages and currents (2021-01-05),

8. 10854243 - Nonvolatile nanotube memory arrays using nonvolatile nanotube blocks and cell selection transistors (2020-12-01),

9. 10741761 - Methods of making sealed resistive change elements (2020-08-11),

10. 10700131 - Non-linear resistive change memory cells and arrays (2020-06-30),

11. 10661304 - Microfluidic control surfaces using ordered nanotube fabrics (2020-05-26),

12. 10654718 - Scalable nanotube fabrics and methods for making same (2020-05-19),

13. 10546859 - Double density nonvolatile nanotube switch memory cells (2020-01-28),

14. 10403683 - Methods for forming crosspoint arrays of resistive change memory cells (2019-09-03),

15. 10355206 - Sealed resistive change elements (2019-07-16),

Title: Thomas Rueckes: Revolutionizing Nanotechnology with Scalable Nanotube Fabrics

Introduction:

In the ever-advancing field of nanotechnology, pioneers like Thomas Rueckes continue to push the boundaries and revolutionize the industry. Hailing from Rockport, MA, Thomas Rueckes has earned widespread recognition for his remarkable contributions, evident through his impressive number of patents and groundbreaking inventions. This article delves into Rueckes' latest patents, career highlights, notable collaborations, and the profound impact he has made on the world of nanotechnology.

Latest Patents:

Thomas Rueckes constantly pushes the limits of scientific innovation with his latest patent achievements. One of his remarkable patents is titled "Scalable Nanotube Fabrics and Methods for Making Same," where he presents a game-changing solution for controlling the nanotube length distribution in nanotube fabrics. By employing filtering operations or a sono-chemical cutting process, Rueckes ensures a pre-selected or desired nanotube length distribution profile, making scalable nanotube fabrics a tangible reality.

Another noteworthy patent is "Three-dimensional Array Architecture for Resistive Change Element Arrays and Methods for Making Same." This patent showcases his brilliance in fabricating resistive change element arrays using a precise method, involving depositing a resistive change material, forming insulating materials, etching trenches, and incorporating conductive materials. Rueckes' innovation paves the way for advanced data storage and computing technologies.

Career Highlights:

Throughout his career, Thomas Rueckes has been affiliated with prominent organizations at the forefront of scientific research. Rueckes has worked with Nantero, Inc., a leading nanotechnology company dedicated to commercializing nanotube-based memory and sensing technologies. His association with Nantero demonstrates his expertise in nanotube applications and highlights his commitment to transforming theoretical concepts into practical solutions.

Additionally, Rueckes has collaborated with Harvard College, one of the world's prestigious educational institutions. Through this partnership, he has had access to cutting-edge resources and has contributed to numerous research initiatives related to nanotechnology. Rueckes' work with Harvard College demonstrates the recognition and trust placed in his innovative capabilities.

Collaborations:

Thomas Rueckes has had the privilege of collaborating with exceptional individuals in his field. Notably, he has worked alongside Claude Louis Bertin, a distinguished scientist known for his significant contributions to nanotechnology. Their combined knowledge and expertise have likely accelerated the progress of their projects and further propelled the field of nanotechnology.

Furthermore, Rueckes has collaborated with Brent M Segal, a renowned researcher with expertise in nanoscale materials and devices. Together, they have undoubtedly fostered an environment of intellectual creativity and shared insights for advancing nanotechnology.

Conclusion:

Thomas Rueckes has undoubtedly left an indelible mark on the world of nanotechnology through his numerous patents, groundbreaking inventions, and collaborative efforts with leading organizations and exceptional colleagues. His latest patents, particularly in scalable nanotube fabrics and three-dimensional array architecture, showcase his commitment to pushing the boundaries of what is possible in nanotechnology. Thomas Rueckes' contributions will continue to inspire future generations of innovators and drive the field forward, leaving a lasting impact on the industry as a whole.

This text is generated by artificial intelligence and may not be accurate.