Atomic, molecular and optical physics research at the James R. Macdonald Laboratory.
 The 
Kansas State University 
Atomic, Molecular, and Optical Physics (AMO) program is one of 
the largest in the country and ranked
among the elite programs in atomic physics by 
US News and World Report.
The faculty is funded by a diversity of grants from the 
Department of Energy, the
National Science Foundation, the 
Office of Naval Research,
the Air Force Office of Scientific Research and the
Research Corporation. 
The AMO group consists of 
nine experimentalists
and 
four theorists who are 
Physics 
faculty members. The group also has 
experimentalists who are Physics research faculty
members and in addition has many 
research associates in both
experiment and theory. The 
graduate students working in the AMO
research program are funded by GRA stipends from the research grants and
are encouraged to attend national 
scientific meetings to present the
results from their research. We are always 
seeking new graduate students.
The 
Kansas State University 
Atomic, Molecular, and Optical Physics (AMO) program is one of 
the largest in the country and ranked
among the elite programs in atomic physics by 
US News and World Report.
The faculty is funded by a diversity of grants from the 
Department of Energy, the
National Science Foundation, the 
Office of Naval Research,
the Air Force Office of Scientific Research and the
Research Corporation. 
The AMO group consists of 
nine experimentalists
and 
four theorists who are 
Physics 
faculty members. The group also has 
experimentalists who are Physics research faculty
members and in addition has many 
research associates in both
experiment and theory. The 
graduate students working in the AMO
research program are funded by GRA stipends from the research grants and
are encouraged to attend national 
scientific meetings to present the
results from their research. We are always 
seeking new graduate students.
 The AMO program has a long history of research in ion-atom collision
physics dating back to the early 1970's. 
Broadly speaking, the theme that unites the JRML current activities is
the study of dynamical processes involving ions, atoms, molecules,
surfaces, or nanostructures exposed to short, intense bursts of
electromagnetic radiation. During the period of 1974-2000 this was
carried out using collisions of energetic ions from our 
Tandem van de Graaff and 
LINAC accelerators, or of slow, highly charged ions from our
EBIS and 
ECR ion sources, with atoms, molecules, clusters and surfaces.
More recently the Lab has added "ultrafast" intense laser
facilities 
(including 
FLAME, the Femtosecond LAser for Multicolor Experiments;
PULSAR, the Prairie Ultrafast Light Source for Attosecond Research;
Konza, a new  high-repetition-rate system, and Atto, for attosecond pulses)
and hired new faculty to develop
and use them. Even though the laser pulses are actually longer than the
collision time scales traditionally studied in the JRML and the electric
fields generated by the "intense" laser pulses are typically weaker,
using the lasers to interrogate the same targets provides one important
benefit - control. The time-dependent profile of the laser pulse can be
shaped by the experimentalist and addresses all targets within the
interaction volume simultaneously. The presence of the the lasers has resulted
in a shift in the direction of much of the program away from pure
collisions toward intense-laser-matter interactions. A major strength of
the laboratory has been the presence of a large number of both
experimentalists and 
theorists working in the same area, often in
collaboration with each other. The science is driven by both theory and
experiment.
The AMO program has a long history of research in ion-atom collision
physics dating back to the early 1970's. 
Broadly speaking, the theme that unites the JRML current activities is
the study of dynamical processes involving ions, atoms, molecules,
surfaces, or nanostructures exposed to short, intense bursts of
electromagnetic radiation. During the period of 1974-2000 this was
carried out using collisions of energetic ions from our 
Tandem van de Graaff and 
LINAC accelerators, or of slow, highly charged ions from our
EBIS and 
ECR ion sources, with atoms, molecules, clusters and surfaces.
More recently the Lab has added "ultrafast" intense laser
facilities 
(including 
FLAME, the Femtosecond LAser for Multicolor Experiments;
PULSAR, the Prairie Ultrafast Light Source for Attosecond Research;
Konza, a new  high-repetition-rate system, and Atto, for attosecond pulses)
and hired new faculty to develop
and use them. Even though the laser pulses are actually longer than the
collision time scales traditionally studied in the JRML and the electric
fields generated by the "intense" laser pulses are typically weaker,
using the lasers to interrogate the same targets provides one important
benefit - control. The time-dependent profile of the laser pulse can be
shaped by the experimentalist and addresses all targets within the
interaction volume simultaneously. The presence of the the lasers has resulted
in a shift in the direction of much of the program away from pure
collisions toward intense-laser-matter interactions. A major strength of
the laboratory has been the presence of a large number of both
experimentalists and 
theorists working in the same area, often in
collaboration with each other. The science is driven by both theory and
experiment. 
JRM Laboratory
306 Cardwell Hall
1228 N. MLK Drive
Kansas State University
	
Manhattan, KS, USA
66506-2604
Voice: 785-532-1527
Fax: 785-532-6806
jrmlab@ksu.edu	
Last updated on Tuesday, 01-Oct-2024