Location History:
- Bethesda, MD (US) (2021 - 2022)
- Washington, DC (US) (2024)
Company Filing History:
Years Active: 2021-2025
Title: Innovations by Adrienne Campbell
Introduction
Adrienne Campbell is a prominent inventor based in Bethesda, MD (US). She has made significant contributions to the field of medical imaging, particularly in magnetic resonance imaging (MRI). With a total of 5 patents, her work focuses on enhancing imaging techniques and reducing artifacts in MRI systems.
Latest Patents
Adrienne's latest patents include innovative methods and systems for Maxwell compensation for spin-echo train imaging. This technology involves computing devices and MRI systems that minimize artifacts produced by Maxwell gradient terms in TSE imaging using non-rectilinear trajectories. The process generates a radiofrequency (RF) excitation pulse to produce transverse magnetization, which in turn generates a nuclear magnetic resonance (NMR) signal. Additionally, she has developed an image registration and principal component analysis-based multi-baseline phase correction method for proton resonance frequency thermometry. This method allows for the acquisition of a series of MR images while monitoring temperature changes in the anatomical area of interest, ultimately yielding motion-corrected images and temperature difference maps.
Career Highlights
Throughout her career, Adrienne has worked with esteemed organizations such as Siemens Healthcare GmbH and the National Institutes of Health, a component of the US Department of Health & Human Services. Her experience in these institutions has allowed her to contribute to groundbreaking advancements in medical imaging technology.
Collaborations
Adrienne has collaborated with notable professionals in her field, including Waqas Majeed and Rainer Schneider. These partnerships have further enriched her research and development efforts.
Conclusion
Adrienne Campbell's innovative work in MRI technology exemplifies her dedication to improving medical imaging techniques. Her contributions continue to have a lasting impact on the field, enhancing diagnostic capabilities and patient care.