The NAE Class of 2026 comprises 158 new members, including 28 international affiliates, elected for their outstanding achievements in engineering research, practice, and education. Dr. Gnade was selected for his innovative efforts to enhance the performance and application of semiconductor materials, which are crucial components in modern electronic devices. His groundbreaking work has directly influenced the development of efficient, scalable semiconductor manufacturing processes that enable the continual miniaturization and improved functionality of electronic circuits.

As director of workforce development at the North Texas Semiconductor Institute, Dr. Gnade plays a crucial role in shaping the future of the semiconductor industry by fostering educational initiatives that prepare students for careers in advanced manufacturing. His leadership is instrumental in bridging the gap between academic research and industry demands, ensuring a robust pipeline of skilled engineers equipped to tackle the complex challenges in semiconductor technology innovation and production infrastructures.

Dr. Gnade’s contributions extend beyond academia into pivotal positions in industry and public service, notably including Texas Instruments and the Defense Advanced Research Projects Agency (DARPA). His technical expertise encompasses the development of novel materials with tailored electronic and optical properties, the integration of compound semiconductors onto traditional silicon platforms, and the optimization of device architectures for enhanced flexibility and performance in emerging consumer electronics, medical instruments, and communication technologies.

His election to the NAE brings significant prestige to UT Dallas, highlighting the university’s robust capabilities in materials science, electrical engineering, and semiconductor research. UT Dallas President Prabhas V. Moghe noted that Dr. Gnade’s achievements not only elevate the institution’s research profile but also spotlight the university’s commitment to leadership in the rapidly evolving field of flexible electronics—a domain that integrates mechanical flexibility with high-performance electronic functionalities for next-generation wearable devices and adaptive systems.

Dr. Joseph Pancrazio, vice president for research and innovation at UT Dallas, emphasized the impact of Dr. Gnade’s visionary leadership in flexible electronics. This subspecialty of electrical engineering amalgamates insights from materials science, microfabrication techniques, and circuit design, ultimately fostering innovative electronic devices that blend durability with new form factors. Gnade’s work drives progress in microelectronics by overcoming traditional limitations of rigid structures and enabling electronics that deform without sacrificing performance.

Over his career, Dr. Gnade has held numerous leadership roles including vice president for research at UT Dallas and executive director of the Hart Center for Engineering Leadership at Southern Methodist University, where he spearheaded initiatives integrating engineering innovation with leadership development. At UT Dallas, his efforts facilitate multidisciplinary collaborations that accelerate advancements in semiconductor materials, device physics, and integrated circuit technologies, key enablers of the electronics revolution shaping the digital age.

The North Texas Semiconductor Institute, under Dr. Gnade’s stewardship, has become a nexus for semiconductor workforce development and research innovation. The institute focuses on educating high school and college students about critical semiconductor industry roles, promoting cutting-edge manufacturing skills as well as advanced technical knowledge essential to maintaining North Texas’s status as a semiconductor industry hub. This strategic educational investment supports vital sectors, including consumer electronics, automotive technology, and national security systems dependent on semiconductor reliability and innovation.

Dr. Gnade’s technical accomplishments include pioneering research on flexible thin-film transistors, organic semiconductors, and hybrid material systems that expand the capabilities of traditional silicon-based devices. His work addresses fundamental challenges related to charge transport, interface engineering, and thermal management in micro- and nano-electronic devices. These advances enable higher device efficiency, prolonged operational lifetimes, and compatibility with non-traditional substrates such as plastics, contributing to the rapid emergence of wearable and implantable electronics.

His journey began with a bachelor’s degree in chemistry from Saint Louis University and a Ph.D. in nuclear chemistry from the Georgia Institute of Technology—an academic foundation that uniquely equipped him to bridge fundamental chemistry principles with applied materials science. Dr. Gnade’s interdisciplinary approach has been essential in pushing the boundaries of semiconductor technology, where atomic-level control over material properties directly translates into profound enhancements in device performance and manufacturability.

Additionally, Dr. Gnade is a fellow of several prestigious professional organizations including the American Physical Society, the Institute of Electrical and Electronics Engineers (IEEE), and the National Academy of Inventors. These accolades reflect his broad influence across multiple facets of science and engineering, from fundamental research to applied innovation, and his commitment to nurturing the next generation of engineers and scientists in the semiconductor field.

The National Academy of Engineering’s recognition of Dr. Gnade aligns him with a distinguished cohort of UT Dallas members who have made seminal contributions to engineering. This group includes pioneers such as Dr. Ronald A. Rohrer, known for computer-aided design simulation strategies, and Dr. Larry J. Hornbeck, inventor of the Digital Micromirror Device. Together, these thought leaders highlight the university’s tradition of excellence in semiconductor research, microelectronics, and engineering education—a tradition that Dr. Gnade continues to advance with visionary expertise.

In summary, Dr. Bruce Gnade’s election to the National Academy of Engineering is a testament to his visionary leadership and groundbreaking advancements in electronic materials and semiconductor device technologies. His work not only propels scientific and technological innovation but also shapes the educational pathways and industry partnerships critical for sustaining U.S. competitiveness in semiconductor manufacturing and electronic device innovation. As flexible electronics continue to transform daily life through wearable, portable, and interconnected devices, Dr. Gnade’s legacy firmly anchors UT Dallas at the forefront of this dynamic field.

Subject of Research: Electronic materials and semiconductor device technologies, flexible electronics, semiconductor manufacturing
Article Title: Dr. Bruce Gnade Elected to National Academy of Engineering for Semiconductor Innovations
News Publication Date: February 10, 2026
Web References:

• https://chairs.utdallas.edu/biographies/dr-bruce-e-gnade/
• https://ntxsi.utdallas.edu/
• https://mse.utdallas.edu/
  Image Credits: The University of Texas at Dallas
  Keywords: Scientific community, Engineering, Electrical engineering, Bioengineering, Electronics, Semiconductors, Electronic circuits, Electronic devices, Microelectronics, Industrial sectors, Manufacturing

King’s election to the NAE can be attributed to his groundbreaking work in transport phenomena and biomedical engineering. His research has provided essential insights into how particles move, adhere, and behave in various biological systems. This foundational work has far-reaching implications, informing breakthroughs not only in the biomedical field but also in public health and environmental engineering as well. The translation of these scientific principles into practical applications highlights the vital role that engineering plays in advancing societal health and safety.

In addition to his research contributions, King has exhibited exceptional leadership in engineering education. He has dedicated his efforts to teaching and mentoring the next generation of engineers at the University of Virginia. His commitment to education reflects an understanding that the development of effective engineers goes hand in hand with rigorous academic inquiry. This ethos resonates with the overarching mission of UVA Engineering, which emphasizes the integration of in-depth research with significant societal impact.

King’s public service has further solidified his reputation as a leader in both academic and global public health initiatives. During the recent COVID-19 pandemic, he played a pivotal role in collaboration with the Gates Foundation and other global entities. His efforts were crucial in facilitating vaccine development and ensuring equitable distribution through innovative initiatives like COVAX. This global partnership demonstrated how engineering principles could be adapted and applied to meet urgent health challenges, ultimately connecting vaccine developers with necessary manufacturing capabilities and regulatory support.

Since joining UVA in 2007 after a remarkable 32-year tenure at Merck & Co., Inc., where he rose to the position of Senior Vice President and advisor to top executives, King has remained a driving force within both the academic and professional communities. His initial appointment as the Brenton S. Halsey Distinguished Visiting Professor provided him with a platform to share his storied experiences and knowledge with students and colleagues alike. His transition into a full-time educator, culminating in his appointment as professor of practice in 2013, underscores his enduring commitment to academic excellence and engineering practice.

King’s remarkable career is marked not only by his scholarly contributions but also by his deep-seated commitment to mentorship. He has been dedicated to fostering the growth of budding engineers and researchers, encouraging them to explore innovative solutions to pressing global challenges. This dedication further exemplifies the values instilled at UVA Engineering, which champions a holistic approach to engineering that combines technical prowess with a sense of societal responsibility.

The election to the National Academy of Engineering engages a rigorous peer-review process that underscores the high standards associated with this prestigious body. King will officially be inducted during the Academy’s annual meeting in October, an event that celebrates contributions to engineering that profoundly influence society. His induction will not only recognize his individual achievements but also highlight the collective impact of UVA alumni and their ongoing contributions to the engineering field.

Alongside King, another UVA alumnus, Anne Aunins, will also be inducted, both having dedicated their careers to advancements in the pharmaceutical industry. Their shared commitment to leveraging engineering principles for societal good mirrors the collaborative spirit of innovation that characterizes the broader UVA community. Additionally, several other recent inductees with deep ties to UVA’s chemical engineering program further exemplify the institution’s influence on the engineering landscape.

The contributions of King and his peers resonate within multiple facets of engineering practice, particularly in industries that stand on the frontline of health and safety. Their innovative approaches are paving the way for future developments that address significant challenges posed by current events, including global pandemics, environmental health crises, and the evolving needs of society at large. King’s lifelong commitment to research and education illustrates the vital connection between academic inquiry and practical application in the engineering profession.

As King prepares for his induction into the National Academy of Engineering, it is critical to acknowledge the weight of such accolades not merely as personal achievements but as reflections of the ongoing collaborative efforts among engineering professionals dedicated to advancing societal well-being. The mentorship and educational initiatives he undertakes ensure that the next generation is equipped with the knowledge and skills necessary to navigate an increasingly complex technological landscape, driving forward the potential for future innovations.

In conclusion, Michael L. King’s recent election to the National Academy of Engineering is a testament to his enduring legacy in the fields of engineering research, education, and public health. As he embarks on this new chapter and prepares for the formal induction ceremony, both his past contributions and future endeavors will undoubtedly continue to inspire educators, researchers, and practitioners alike, reinforcing the vital role of engineering in shaping a sustainable and healthy society.

Subject of Research: Transport phenomena and biomedical engineering
Article Title: Michael L. King Elected to National Academy of Engineering
News Publication Date: October 2023
Web References: Gates Foundation, COVAX
References: University of Virginia School of Engineering and Applied Science
Image Credits: UVA Engineering

Keywords

Kavraki, who holds the Kenneth and Audrey Kennedy Professorship in Computing at Rice University, has served in various capacities across several departments including computer science, electrical and computer engineering, mechanical engineering, and bioengineering. In her role as the director of the Ken Kennedy Institute, she has championed collaborative research and innovation, focusing on the pressing global challenges that arise in artificial intelligence and computing. This intersection of disciplines has been central to her work and its overarching impact on society.

The specific essence of Kavraki’s contributions lies in her groundbreaking development of sampling-based motion-planning algorithms. These algorithms have fundamentally changed the landscape of robotics by significantly minimizing the time required for planning robotic movements. Previously, the computational challenges might have led to delays extending to several minutes; however, through her innovations, these planning times have been reduced to mere fractions of a second. This improved efficiency is pivotal in enabling robots to operate safely and effectively in complex environments, facilitating their deployment in diverse applications ranging from industrial automation to aid in surgical procedures.

Beyond the immediate applications in robotics, Kavraki’s vision encompasses a more profound aspiration: creating a future where robots work harmoniously alongside human beings. This vision opens exciting possibilities, enabling advancements in numerous fields, such as human-robot collaboration in factories, aiding astronauts in the exploration of outer space, and enhancing medical procedures through robot-assisted surgeries. Each facet of her work underscores how robotics can transcend traditional boundaries and contribute effectively to human endeavors.

In a statement reflecting on her honor, Kavraki expressed her gratitude, emphasizing that this recognition is a collective achievement, indebted to her students and collaborators. Their shared commitment to pushing the frontiers of research in robotics and computational biomedicine has been instrumental in every success she has attained. As an academic and mentor, her role extends well beyond research; Kavraki is dedicated to cultivating the next generation of engineers, inspiring them to explore the vast potential of robotic systems and their applications.

Kavraki’s influence stretches across both academic research and practical applications. Her lab has developed the Open Motion Planning Library, a resource that has become indispensable across various sectors, driving tools that integrate effectively with software systems utilized in industries such as aerospace, manufacturing, and healthcare. Her notable projects include contributions to NASA’s Robonaut2, underscoring how her research is critical to the development of robots that assist astronauts during missions. This engagement with physical artificial intelligence highlights her role in shaping the future of robotics in significant and forward-thinking ways.

In the field of biomedicine, her work provides state-of-the-art computational tools that assist medical professionals in decision-making processes. For instance, her APE-Gen tool has played a crucial role in guiding personalized immunotherapy for cancer patients, proving to be instrumental in advancing treatment strategies at institutions like the University of Texas MD Anderson Cancer Center. The implications of her work reverberate through many sectors, fundamentally shifting how clinicians approach and personalize patient care.

The recognition of Kavraki’s election to the NAE has been met with enthusiasm within the Rice University community. President Reginald DesRoches articulated that her election signifies not only a personal achievement but also a broader acknowledgment of her contributions to engineering, leadership, and education within the field. Kavraki’s influence as a mentor and leader fosters an environment rich in innovation and collaboration, breeding excellence in engineering at Rice University.

Her commitment to addressing ethical dimensions within artificial intelligence reflects a growing awareness in the tech community about the social implications of technology. Projects aimed at tackling bias in machine learning data and considerations for privacy in robot-assisted settings echo her ethical approach to innovation. Kavraki’s foresight into these challenges reinforces the importance of embedding ethical thinking into technological advancements, paving the way for responsible AI practices in the future.

As a distinguished member of multiple prestigious organizations, including the National Academy of Medicine and the American Academy of Arts and Sciences, Kavraki’s recognition extends beyond the NAE. She has made significant strides in shaping the landscape of robotics and artificial intelligence, honored as a fellow by esteemed associations such as the American Association for the Advancement of Science and the Association for the Advancement of Artificial Intelligence. Her extensive body of work includes over 400 research publications and a robotics textbook, reflective of her prolific contributions to the field.

Throughout her career, she has demonstrated an unwavering commitment to mentoring aspiring researchers. Kavraki has successfully guided over 30 PhD students and 20 postdoctoral fellows, creating a legacy of innovation and exploration in robotics and computer science. Her passion for teaching and mentorship is evident in her commitment to engaging undergraduates, having supervised more than 100 students on diverse research projects.

As Kavraki joins 128 new U.S. members and 22 international members elected to the NAE’s 2025 class, her formal induction is scheduled to take place during the NAE’s annual meeting in October 2025. This honor cements her status as a leader and pioneer in her field and reinforces her contributions to the dynamic landscape of engineering and technology. The recognition of her groundbreaking research and mentorship will undoubtedly influence future generations of engineers and researchers, catalyzing continued advancements in robotics and beyond.

In a world increasingly defined by technological innovations, Lydia Kavraki’s journey serves as an inspiring testament to the potential of engineering to address complex challenges. Her work illustrates how technology can be harnessed to improve lives and reshape industries while fostering an environment of collaboration and ethical considerations. As she prepares for her induction into the National Academy of Engineering, the impact of her work continues to reverberate, reminding us of the power of dedication and innovation in carving out the future of robotics and computational science.

Subject of Research: Development of Randomized Motion-Planning Algorithms for Robotics
Article Title: Lydia Kavraki Elected to National Academy of Engineering
News Publication Date: February 12, 2025
Web References: NAE New Class 2025
References: Biography of Lydia Kavraki
Image Credits: Credit: Rice University

Keywords: Robotics, Motion Planning, Artificial Intelligence, Biomedicine, Human-Robot Collaboration, Ethical AI