Three decades ago John Cowley and his group at ASU achieved high-resolution electron microscope images showing the crystal unit cell contents at better than 4Angstrom resolution. Over the years, this achievement has inspired improvements in resolution that have enabled researchers to pinpoint the positions of heavy atom columns within the cell. More recently, this ability has been extended to light atoms as resolution has improved. Sub-Angstrom resolution has enabled researchers to image the columns of light atoms (carbon, oxygen and nitrogen) that are present in many complex structures. By using sub-Angstrom focal-series reconstruction of the specimen exit surface wave to image columns of cobalt, oxygen, and lithium atoms in a transition m...
Ultra high-resolution is needed to resolve light elements in a heavy-atom matrix, such as Li+ in a t...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...
Three decades ago John Cowley and his group at ASU achieved high-resolution electron microscope imag...
John Cowley and his group at ASU were pioneers in the use of transmission electron microscopy (TEM) ...
John Cowley and his group at ASU were pioneers in the use of transmission electron microscopy (TEM)...
John Cowley and his group at Arizona State University pioneered the use of transmission electron mi...
Metal atoms can be routinely imaged in TEM specimens at resolutions from 2 Angstrom to 1.5 Angstrom,...
Twenty-five years ago, the Cowley group at ASU pioneered the use of transmission electron microscopy...
AbstractResearchers have used a One Angstrom transmission electron microscope to image lithium atoms...
Hardware and software correction of spherical aberration have each produced sub-Angstrom images, and...
AbstractResearchers have used a One Angstrom transmission electron microscope to image lithium atoms...
LiCoO{sub 2} is the most common lithium storage material used as positive electrode in lithium recha...
LiCoO2 is the most common lithium storage material for lithium rechargeable batteries, used widely t...
LiCoO2 is the most common lithium storage material for lithium rechargeable batteries, used widely t...
Ultra high-resolution is needed to resolve light elements in a heavy-atom matrix, such as Li+ in a t...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...
Three decades ago John Cowley and his group at ASU achieved high-resolution electron microscope imag...
John Cowley and his group at ASU were pioneers in the use of transmission electron microscopy (TEM) ...
John Cowley and his group at ASU were pioneers in the use of transmission electron microscopy (TEM)...
John Cowley and his group at Arizona State University pioneered the use of transmission electron mi...
Metal atoms can be routinely imaged in TEM specimens at resolutions from 2 Angstrom to 1.5 Angstrom,...
Twenty-five years ago, the Cowley group at ASU pioneered the use of transmission electron microscopy...
AbstractResearchers have used a One Angstrom transmission electron microscope to image lithium atoms...
Hardware and software correction of spherical aberration have each produced sub-Angstrom images, and...
AbstractResearchers have used a One Angstrom transmission electron microscope to image lithium atoms...
LiCoO{sub 2} is the most common lithium storage material used as positive electrode in lithium recha...
LiCoO2 is the most common lithium storage material for lithium rechargeable batteries, used widely t...
LiCoO2 is the most common lithium storage material for lithium rechargeable batteries, used widely t...
Ultra high-resolution is needed to resolve light elements in a heavy-atom matrix, such as Li+ in a t...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...
The microscopic world at the atomic scale seems very remote from our daily lives. Still, we exploit ...