Fig.1

Phase shift curves"

Fig.2

Relationship between the poles kp and pF, with ${\varLambda _{{J_0}}}$ = 138 MeV, x = 0.2 "

Fig.3

Relationship between the poles kp and pF, with ${\varLambda _{{J_0}}}$ = 35 MeV, x = 0.2 "

Fig.4

Graph of G-k with ${\varLambda _{{J_0}}}$ = 138 MeV, x = 0.2, pF = 0.3 fm–1"

Fig.8

Graph ofG-k with ${\varLambda _{{J_0}}}$ = 35 MeV, x = 0.2, pF = 0.5 fm–1"

Fig.5

Graph ofG-k with ${\Lambda _{{J_0}}}$ = 35 MeV, x = 0.2, pF = 0.3 fm–1"

Fig.6

Graph ofG-k with ${\varLambda _{{J_0}}}$ = 138 MeV, x = 0.2, pF = 0.5 fm–1"

Table 1

Some poles kp of Brückner G matrix with ${\varLambda _{{J_0}}}$ = 138 MeV"

Table 2

Some poles kp of Brückner G matrix with ${\varLambda _{{J_0}}}$ = 35 MeV"

Fig.7

A partial enlargement of figure 6 "

Table 3

Single particle energy with ${\varLambda _{{J_0}}}$ = 138 MeV, (E/A)1 represents the numerical result of method (1), (E/A)2 represents the result of method (2)"

Table 4

Single particle energy with ${\varLambda _{{J_0}}}$ = 35 MeV, (E/A)1 represents the numerical result of method (1), (E/A)2 represents the result of method (2)"