Volltext
P H Y S I C A L R E V I E W C V O L U M E 7 , N U M B E R 4 A P R I L 1 9 7 3
Problem of Antisymmetnzation in Heavy-Ion Scatter- should be deleted. T h e r e f o r e , t h e s u m ing, J. Y. P a r k , W. Scheid, and W. G r e i n e r [ p h y s . L + J h a s t o be a n even number f o r t h e s c a t t e r i n g Rev. C
ÄHNLICHE DOKUMENTE
GIHKJm|CgVM{£iJ[zvTSHWZôj´|áMTSJ[OfTVH¢RZKJIQVHKOtatHWJî-H J[ORgit:j«¶¹HKJhbdcJ[giTij|áMTSJ[OvTSH¢RUZWJ ^tHWJm]uHKTpt^Jh] CZKJhzvTSgiMPOJhO3jNLN] x
The second group of core transport proteins has also orthologs in all six bacteria but strain CH34 contains up to twice the number of family members that is present in all six
We compare results performed within the single-particle model with calcu- lations using the inclusive probability theory to match the full experimental questions
For the impact energies lower than needed to reach the crossings at and below 0.03 au, in the vicinity of the united atom 3d levels (equivalent to approximately 6 MeV
The time dependence of a heavy-ion-atom collision system is solved via a set of coupled channel equations using energy eigen- values and matrix elements from a self-consistent
During heavy ion-atom collisions noncharacteristic X rays in various colliding systems have been observed. The data available can be divided into three different groups:
(17) differs f rom the original equ. Inserting this into equ. These are full scale Dirac- Fock-Slater calculations taking into account all electrons and a large number of
Diatomic correlation diagrams are the main basis for the description of heavy-ion col- Hstons, We have constructed the first realistic relativistic many-electron correlation
