2. Data Structure Tree

sd_mode_cycle (K8)


(o) '. CYCL_TYPE ': OJB S V K8 long=1


(o) '. CYCL_DESC ': OJB S V I long=4


(o) '. CYCL_DIAM ': OJB S V I


(o) '. CYCL_NBSC ': OJB S V I long=1


(o) '. CYCL_REFE ': OJB S V K24 long=3


(o) '. CYCL_FREQ ': OJB S V R


(o) '. CYCL_NUIN ': OJB S V I long=3


(o) '. CYCL_CMODE ': OJB S V C

2.1. Item Content JEVEUX

2.1.1. Purpose. CYCL_REFE

'. CYCL_REFE ': S V I LONG =3

V (1)	sd_mesh concept name
V (2)	dynamic interface concept name (sd_interfer_dyna_clas)
V (3)	sd_base_modal concept name

2.1.2. Purpose. CYCL_TYPE

'. CYCL_TYPE ': S V K8 LONG =1

V (1)

sd_mesh concept name

2.1.3. Purpose. CYCL_NUIN

'. CYCL_NUIN ': S V I LONG =3

V (1)	right interface number
V (2)	left interface number
V (3)	axis interface number if there is 1 axis. 0 otherwise.

2.1.4. Purpose. CYCL_NBSC

'. CYCL_NBSC ': S V I LONG =1

V (1)

number of sectors

2.1.5. Purpose. CYCL_DESC

'. CYCL_DESC ': S V I LONG =4

V (1)	nb_mod	number of database modes used
V (2)	nb_ddl	number of ddls from the left (or right) interface
V (3)	nb_ddli	number of ddls in the axis if it exists. 0 otherwise.
V (4)	nb_freq	number of frequencies calculated by node diameter

2.1.6. Purpose. CYCL_DIAM

'. CYCL_DIAM ': S V I LONG =2*nb_diam

V (1 to nb_diam)	nodal diameter number
V (nb_diam+1 to 2*nb_diam)	number of modes per diameter

2.1.7. Purpose. CYCL_CMODE

'. CYCL_CMODE ': S V C LONG =nb_diam*nb_freq* (nb_mod+nb_ddl+nb_ddli)

Values of the various generalized ddls for each node diameter and for each frequency.Arrangement convention: if it were an array with 3 indices, it would be: CYCL_MODE (i_ddl, i_freq, i_diam)

2.1.8. Purpose. CYCL_FREQ

'. CYCL_FREQ ': S V C LONG =nb_diam*nb_freq

Frequency value for each node diameter.Arrangement convention: if it were an array with 2 indices, it would be: CYCL_FREQ (i_freq, i_diam)