008/0/18 08:40-10:10, 1:50-14:0 14:30-16:00, 16:10-17:40,
1pt A
1911 Leiden Heike Kammelingh-Onnes
H.Kammelingh Onnes 1907 He 1 4. K
H H c T c T
H c Hg:40 mt, Pb:80 mt, Sn:30 mt 100 mt I c
H c
H c H c1 H H c H c T c T
H c H c T c H c
1957 BCS 10 K 10 K T c
I, Br, Ca, S, Li :C 6 I 4 O, C 6 I 6 : CsI, BiI :SnI 4 (O) (Fe) vol.38 No.1 (003) p69~8
vol.38 No.1 (003) p.69~8
NbTi Nb 3 Sn 50 SQUID
1911 Kammerlingh Onnes Kunzler Nb 3 Sn 6 T 15 T 0 T
NbTi Nb 3 Sn Tc
Nb 3 Ge
1986 IBM La -x Sr x CuO 4 La -x Ba x CuO 4 T c ~30 K
1987 YBa Cu 3 O 7-δ Tc 77K
Y O 3, BaO, CuO,
1988 1 Bi Ca Sr Cu 3 O 10 Tl Hg H c MgB
YBa Cu 3 O 7-δ (YBCO) Bi Ca Sr Cu 3 O 10 (Bi3)
T c H c I T
I
I
15 T GM Refrigerator 1st stage (30~50 K) Vacuum space High Tc SC lead (Bi 3) Radiation Shield Compressor SC Magnet
I
Bi3 Bi Ca Sr Cu 3 O 10
(Bi3) T c 110K
I c ( 4.mm x 0.mm 0.9mm ) 10A 10
BSCCO : 85% DI-BSCCO : 100%
Albany
DC LNG
NMR NMR(Nuclear Magnetic Resonance) B ω = γb proton) 4.6 MHz @ 1 T I ω Bruker & Oxford 950 MHz @ ~.3 T JEOL JASTEC 930 MHz @ ~ T B 1GHz @ 4 T
NIMS) JEOL JASTEC 930 MHz @ ~ T NIMS
(1) 1mm (77K) 00A () (3) (4) 1,800m
800 1
( )
(4K) 0K
1
http://fir.fir.fukui-u.ac.jp/
P=πfε 0 ε r tanδ E f : ε 0 : ε r : tanδ : E :
eb ωc ( GHz) = = 8B(T) m
http://www.enecho.meti.go.jp/e-ene/handbook/04_sikumi/401_type_a.html
B 4 C B 4 C BN( (cubic) )
B 4 C,., B 4 C, (HIP) (SPS).,.. B 4 C, B 4 C
,,,,.,,.
B 4 C, HIP.. He.,,.,,.,,,,.
,,..,,,.,, ( ).,,, 100 90%, B4C 90%,.
~0.1% % ~10%
c Al 3+ O - Cr 3+
1891 Al O 3 Cr O 3 000 10cm
Al O 3 Cr O 3
Al O 3 Cr O 3
10-15 m 10-10 m 10-15 m
E = 1 mv e r
r e m p r e mv E 1 = = mv Q p = Schrödinger r e z y x m r e m p + + = = h H + + z y x
φ H φ = E r e z y x m r e m p + + = = h H
r e mr l r r dr m + + = h h H + + = x y y x z x x z y z z y l l φ H φ E = r e z y x m r e m p + + = = h H
r e mr l r r dr m + + = h h H ), ( ) ( ϕ θ φ Y r R = ) ( ) ( r R r e mr r r dr m r R + + = h λh H 1 ), ( ), ( ϕ θ ϕ θ Y Y = l H 18 19
) ( ) ( r R r e mr r r dr m r R + + = h λh H 1 4 n me h = 1 E n=1,,3, n= n=1
H Y ( θ, ϕ) = l Y ( θ, ϕ) Y ( θ, ϕ) Y ( θ, ϕ) = Θ ( θ ) Φ ( ϕ) lm m l m
n, l, m, n= n= 3 n= E 1 4 me = h n n= 1 λ~130 nm λ 400 700 nm
n=1,,3 l=s,p,d,f,. s: l=0, p: l=1, d: l=, X n=1 l=0 : s n= l=0, 1 : s,p, n=3 l=0, 1, : s,p,d
n=1,,3 l=s,p,d,f,. l=0:s, l=1:p, l=:d, H:1s 1, H + :1s 0, He:1s, Li:1s s 1, Be:1s s, B:1s s p 1,C:p,N:p 3,O:p 4,F:p 5, Nep 6 He:1s Li:1s s 1
Ne:1s s p 6 ( 10, Ar:1s s p 6 3s 3p 6 ( 18, K:1s s p 6 3s 3p 6 4s 1, Ca:1s s p 6 3s 3p 6 4s, 3d 4s Sc:1s s p 6 3s 3p 6 3d 1 4s, Ti:3d 4s, V:3d 3 4s, Cr:3d 4 4s, Mn:3d 5 4s, Fe:3d 6 4s, Co:3d 7 4s, Ni:3d 8 4s, Cu:3d 9 4s, Zn:3d 10 4s
Al Al:1s s p 6 3s 3p 1 Al 3+ :1s s p 6 ( 13 ( 10 Ne O O:1s s p 4 ( 7 Ne O - :1s s p 6 ( 10 - Al +3 O - s p
Cr Cr:1s s p 6 3s 3p 6 3d 4 4s ( 4 Cr 3+ :1s s p 6 3s 3p 6 3d 3 Al O 3 Cr O 3 Fe O 3 Al O 3 Cr 3+ Fe 3+
Cr 3+ :1s s p 6 3s 3p 6 3d 3 3d l+1=5 Cr +3 s d p
Cr 3+ Al O 3
d d H 1 E = mv p = m e r e r h = m e r H h = m e r 6 + Ze R i i r n=3 l= (3d)
h H = m 6 Ze R i i r e r 6 + Ze R i i r Y ( θ, ϕ) = Θ ( θ ) Φ ( ϕ) lm m n=3 l= (3d)
n= n= 3 n= E 1 n= 4 me = h n n= 5 n= λ~130 4 nm l= (3d) n= 1 n= 3 λ~400 nm ~700 nm
n= n= 3
Be 3 Al Si 6 O 18 Cr 3+
Ca(PO 3 ) ( ) ( ) ( ) ( ) ( ) ( ) ( )
(D) (T) D + D -> He3 + n + 3.3 MeV D + D -> T + n + 4.03 MeV http://p-grp.nucleng.kyoto-u.ac.jp/fusion/fusion.html#fusion http://www.nifs.ac.jp/index-j.html
Au: 4f 14 5s 5p 6 5d 10 5f 0 6s
Au: 4f 14 5s 5p 6 5d 10 5f 0 6s + +
E = E exp( iω ) 0 t m&& x = ee ee0 x = mω N P = enx = Ne mω E 0
Ne P = enx = E 0 D = εe = E + P mω Ne ε ( ω) = 1 mω ω < ω p ω > ω p ω p = 1 ω ω = p Ne m ε ε
P - + + - P
P - +
http://www.grn.mmtr.or.jp/~noriko/goldcolloid/explanati on.html
[ ] G.Mie, "Beitrage zur Optik truber Medien, speziell kolloidaler Metallosungen", Annalen Physik, 5, 377-445 (1908). Mie J.C.Maxwell-Garnett, "Colours in Metal Glasses and in Metallic Films", Phylosophical Transactions, 30, 385-40 (1904). Maxwell-Garnett C.A.Foss, Jr., G.L.Hornyak, J.A.Stockert, and C.R.Martin, "Template- Synthesized Nanoscopic Gold Particles: Optical Spectra and the Effects of Particle Size and Shape", Journal of Physical Chemistry, 98, 963-971 (199). P.B.Johnson and R.W.Christy, "Optical Constants of the Noble Metals", Physical Review B 6, 4370-4379 (197).
3
1100~1300ºC
Al Si O 5 (OH) 4
1616
http://www.k3.dion.ne.jp/~m_kato/kakiemon.html#
- - 1,800 61 6 7 1 : : :
1958 4 169
6 α-fe O 3
17 α-feooh 17
18
1707
FeS +(Fe 11 S 1 ~Fe 7 S 8 ) +O FeSO 3 +SO 3 +SO +O FeSO 3 +H O Fe + +SO 4 - +H O Fe + +SO 4 - +H O FeSO 4 7H O FeSO 4 7H O FeSO 4 H O 700 1~ FeSO 4 H O α-fe O 3 +SO 3 +SO +MSO 4
FeSO 4 H O α-fe O 3 +SO 3 +SO +MSO 4 PbO-SiO, B O 3 -SiO, PbO-B O 3 -SiO
10%~5% 100 700
a)fe O 3 b)fe O 3 c)fe O 3
Fe O 3 Fe O 3 Fe O 3 Fe O 3 % 760 Fe O 3 5% 760 800 900 10% 800 900 0% 900 1100
Fe O 3 Fe O 3
Fe O 3 10~0 700 900 Fe O 3 Fe O 3 Fe O 3
Fe O 3 Fe O 3 S1 660 S: 700 S3 800 S4 900 α Fe O 3 0% 700 15
S1 0.05µ m S 0.05µ m S3 0.15µ m S4 0.5µ m
Fe O 3 660 α Fe O 3 0% 700 15 800 15 900 15 1000 15 0.05 µm 0.1 µm 0.5 µm 0.3 µm
Fe O 3 660 α Fe O 3 0% 700 800 900 1000 15 1 3
Fe O 3
α
α-fe O 3
α-fe O 3 α-fe O 3 α-fe O 3
vol.59, No1, (006) 141-143
a 100
Fe O 3
150 µ α-al O 3 1µm 0.3µm α-al O 3 c: 1 /min
4
1pt A