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1

2 Cotets 1. Itroductio-1 (. Itroductio- 3. Itroductio

3 Itroductio-1 Overview of physics of eutro-rich uclei

4 LBLN Isotope Project, S =0 S =0

5 RI 007 ZeroDegree RIPS RRC RILAC ZeroDegree RARF (old) frc IRC BigRIPS SRC

6 [MeV] 007 Rh (Z=45) Tc 98 Nb Y Y Rb Br (Z=35) As Ga Cu Co 64 Ni Sb 14 S I Ag Xe I Fe Ni PID F1 38U + Be(5mm) at 345 MeV/, F1 : +-mm, Brho : 76 Ni r-process path A/Z=.5 Kr Se Ge Cd Pd Ru Z (Z=30) 70 Ni Te S (Z=50) 13 S 117 Rh Mo Zr (Z=40) 104 Zr Sr 91 Br 8 Ge 76 Z TOF(F3-F7) [s]

7 Ca H He Be BC Li O N Ne Na Mg Al Si F S P Ca Ar Cl K A=4 A=5 4 O+ 3 O+ N=8 N= 5 O 4 O

8 4 O 5 F 4 Si 5 Si MeV/c ) 4 F 4 Ne 4 Na 4 Al MeV/c ) 5 Ne 5 Na 5 Al 4 Mg 5 Mg Z Z 4 O 4 F+e - +ν 4 Si 4 Al+e + +ν 4 Si+e - 4 Al+ν(

9 0.17 /fm 3 ( /cm 3 ) B( Z, N) c v 1/ 3 = { Zm p + Nm M ( Z, N)} V A, r = r0 A Weizsacker-Bethe /3 Z ( N Z) B( Z, N) = av A as A ac asym +δ 1/3 A A a = 16 MeV, a = 17 MeV(~ a ), a = 0.70 MeV, a = s δ = ±,0 0 v c sym B / A ~ 8 MeV 3MeV Quiz Quiz a sym

10 Fermi Gas Model --- Ω 3 Ω = dr dp / h = 3 (π ) Fermi Mometum 1/ 3 kf = 3π Ω 3π PF = h Fermi Eergy h k E = F F m 9 π = hc 3 8 r0 ( 50 MeV/c) Mea Kietic eergy ad mometum A Ω 1/ 3 4πk ~ 30 MeV 3 F P F T = E ~ 0 MeV, P = 5 0 = 930 MeV/c k F 1/ 3 = (300 / r N=Z MeV/c ~ 190 MeV/c V U 0 a 3 Ω = a Quiz: Quiz: Fermi Ω dk = (π ) 0 ) ~ 3 4 πk 3 3 F U 0 x

11 Z Be BC Li He H N Ne O F N N=8 11 Be 11 Li 19 C 1 N=0 β + β - (Neutro Halo) small S ρ ~ exp(-r/λ)/r 11 Li 9 Li S =300keV 11 Be 10 Be S =504keV -S Quiz s l=1, S

12 N=7 N=8 11 Be, 11 Li 1s 0p Why?? (Talmi Ua) I.Hamamoto 006) I. Talmi ad I. Ua, PRL4, 469 (1960). Myo, Kato, Ikeda et al., Private Comm.)

13 β decay of 11 Li N.Aoi et al., 11 Li 11 Be*+e - +ν 11 Be(g.s.)+γ 10 Be++(γ) ft 3 Gamow Teller h π l =, O = στ mc G Ψf O Ψi 11 Be 1/ + 0p 1/ domiat) log ft =5.67(4)) p Ψ [ ] (1s ) β (0 ) 11 ( Li) = Core α + p β =51(6)%

14 V(r) Major shell + r - Woods Saxo Potetial) 1 U = ω ( ) + ( r) m r + C l s Dl Major Shell Itruder Major Shell Quiz Major Shell hω 41A /3 MeV

15 Borromea 9 Li 11 Li α He di-eutro or cigar? α α α α 3 α + + α + + J.M. Bag, M. Zhukov et al., Phys.Rep. 64, 7 (1996). Borromea

16 E T z = -1 T z = 0 T z = +1 0 pp p p (=d) T=1, S=0,L=eve 1 S 0 SE T=0, S=1,L=eve 3 S D 1 TE (Spi Triplet) B=.MeV) (Spi Siglet) (Virtual State) V(r) Hard core ~ fm ( S+1 L J ) T+S+L=odd for NN system 1 3 r OPEP ~100MeV Quiz:

17 Hard core ~ fm OPEP V ( OPEP) Oe-pio Exchage Potetial 1 f = mπ c [ Vc ( r)( σ1 σ)( τ1 τ ) + VTN( r) S1( τ1 τ ) ] 3 hc ( σ1 σ )( τ1 τ ) = 3 TE(d) 3 3 exp( µ r) 3 ( r) = 1+ +, 1 = ( σ1 )( σ ) ( σ1 σ ) µ ( µ ) S r r r r µ r r SE(,p,pp) S=0 S 1 =0 V TN ( τ1 τ ) π 1 3 r exp( µ r) 1 m V c ( r) =, = = 1.4fm (fm) µ r µ hπ c f = 0.08 hc π For both SE(,p,pp) & TE(d)

18 Na isotope σ I E F Neutro radii ( Proto radii p Isotope shift T. Suzuki et PRL75,341 (1995). A. Ozawa,T. Suzuki, I. Taihata et al.npa693,3(001). E F = S p S

19 ρ p r core p p Ski r ρ core p r halo p p p fm Quiz:

20 6 He- 6 He 1 Be 6 He P( 6 He) 1 Be p 6 He P( 6 He) M.Freer et al., Phys.Rev.Lett. 8, 1383 (1999). A.Saito, S.Shimoura et al., More molecular States!

21

22 Y.Kaada-Eyo ad H.Horiuchi PRC5,647(1995). H.Takemoto,H.Horiuchi ad A.Oo PRC63,034615(001). B N=8 He Li 17 B He Li 19 B

23 N=0 T.Motobayashi et al., Phys. Lett. B (1995). 3 Mg 3 Mg* 3 Mg 49MeV/ucleo (β = 0.31c) γ γ High Z Target (Pb) NaI Si πl = E 3 Mg Doppler

24 3 Mg σ B c ( E) N( E) 4π β = B( E) 3ZeR R = R (1 + βy E ( 0 0 θ )) β = 0.51 ± B ( E) = 454 ± 78e N=0 fm 4 N=0 34 Mg H.Iwasaki et al.,plb5,7(001).

25 ,, ) ( 1 1 ) ( ) ( i f i m M M i i f f I El O I I M I Elm O M I El B f i + = = [ ] ) ( 1)!! ( 1) ( 8 1 El B c E l l l T l+ + + h h γ π (El) B reduced trasitio probability) f f i i M I M I l fm e =1/ = Ω = Z k l m l r k Y Ze Elm O 1 ) ( ) ( Wiger Eckart s Theorem ) ( ) ( 1 1 ) ( f f i i i f f i i f f M M lm I I I El O I I M I Elm O M I + = El Reduced Matrix elemet C.G. (

26 48 Ca beam 64MeV/ ~140pA RIPS Z Z Na (a) 34 Ne 31 F A/Z 43 Si (b) A/Z M.Notai, H.Sakurai et al. PLB54,49(00). Figure 1 Notai et al.

27 Implicatio of New isotopes Magicity Loss N~0 P Si Al Islad of Iversio 40 Al 41 Al 43 Si Mg Na 3 Mg 34 Mg Mg Mg 37 Na N=8 Ne 31 Ne 34 Ne F 31 F Z=8 O N 4 O 3 N Stability Jump Betwee O ad F Isotopes C C N=0 New Isotopes Uboud proved

28 16 C decouplig N.Imai et al. Phys.Rev.Lett. 9, (004) MeV 16 C + 0 +

29 16 O 16 C N.Imai et al. Phys.Rev.Lett. 9, (004). Y.Kaada-Eyo, PRC71,014303(005) H.J.Og et al., PRC73, 04610(006). 16 C(p,p ) eutro deformatio domiat

30 Summary 16 C H He Be BC Li N= O N Ne Na Mg Al Si F N=8 S P Ar Ca Cl K 1 Be N=8 N=16 N=0 Motobayashi,Sakurai et al. Ozawa et al. N=8

31

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