Albert Crewe

Exploring transformative approaches to electron microscopy, Albert Crewe was a pioneering physicist whose work left an indelible mark on the scientific community. Born in Yorkshire, England, in 1927, Crewe's early fascination with the physical sciences led him to pursue a PhD in physics at the University of Liverpool, which he completed in 1951. His academic journey brought him to the University of Chicago in 1955, where he would spend the majority of his illustrious career. At the University of Chicago, Crewe's innovative spirit and dedication to research culminated in the design of the first successful scanning transmission electron microscope (STEM) in 1970. This groundbreaking invention allowed for the capture of the first images of individual atoms, a feat that revolutionized the field of electron microscopy and opened new avenues for scientific exploration and discovery. Crewe's leadership extended beyond his research as he served as the dean of the Physical Sciences Division from 1971 to 1981. During his tenure, he was instrumental in fostering an environment that encouraged interdisciplinary collaboration and innovation. In recognition of his outstanding contributions to the university and the field of physics, he was named the William E. Wrather Distinguished Service Professor in 1977. Throughout his career, Crewe's work earned him numerous accolades, reflecting his status as a leading figure in the scientific community. His election to the National Academy of Sciences was a testament to his significant contributions and the high regard in which he was held by his peers. Crewe's legacy is not only defined by his scientific achievements but also by his commitment to mentoring the next generation of physicists. By the time of his passing in 2009, Albert Crewe had firmly established himself as a visionary in electron microscopy, leaving behind a legacy of innovation and excellence that continues to inspire researchers and students alike. His work remains a cornerstone in the study of atomic structures, and his influence is felt across the scientific disciplines that rely on electron microscopy as a critical tool for discovery.