Company Filing History:
Years Active: 2018-2019
Title: Lorie Liebrock: Innovator in User Authentication Technology
Introduction
Lorie Liebrock is a prominent inventor based in Socorro, NM (US), known for her contributions to the field of user authentication technology. With a total of 2 patents, she has made significant strides in enhancing security measures within computer networks. Her innovative approaches focus on detecting anomalous behavior, which is crucial in today's digital landscape.
Latest Patents
Liebrock's latest patents revolve around the concept of detecting anomalous behavior via user authentication graphs. This technology allows for the analysis of significant and aggregate user authentication activity across a population of users and computers within one or more networks. By differentiating between authorized users and potential intruders, her work aims to enhance network security. The use of dynamic graphs and graph models over user and computer authentication activity, including time-constrained models, plays a vital role in profiling and analyzing user behavior. Specifically, an edge-based breadth-first search of graphs is employed, which enforces time constraints while maintaining traditional computational complexity equivalence.
Career Highlights
Throughout her career, Lorie Liebrock has worked with notable organizations such as Los Alamos National Security, LLC and New Mexico Tech Research Foundation. Her experience in these institutions has contributed to her expertise in the field of user authentication and network security.
Collaborations
Liebrock has collaborated with several professionals in her field, including Alexander Kent and Joshua Charles Neil. These collaborations have further enriched her work and expanded the impact of her innovations.
Conclusion
Lorie Liebrock's contributions to user authentication technology demonstrate her commitment to enhancing security in computer networks. Her innovative patents and career achievements highlight her role as a leading inventor in this critical area.