LB-01LACSdhhMu)))(SNDmymyn

2BmyB5tmmm

Å2B° B5°H)Inmn°m2B ° B5°w°

m+(b2B.&+ Vmm
Em(&+ (&+ V+( SND°°n

8N m N m7Jmn

1. K. Ohya, Proc. of SPIE 10145 (2017) 101451V.

LB-02dM)M)

B O WY[P 6YNM)

GJTNβxm])&°°

m°yn

mFtymyxβystmt°yβÅx°H)Inmystn

1. Long, B. S. et al., Science (2005) 903-908
2. Jensen H. K. et al., J. Struct. Biol. (2016) 49-60nm°Åtw,( Vmmt])&nmmtDmxtmnFx°n°)((m°°m/&- c“βv°sH In°xtxmβmx°vmm%LB-03

LRS 3MLOTSM))+Mm°sÅwnmxm°tm

wÅs+Msx

mn°yβ

4 B

mmBL%

+4 B

nmLk,hmm+ ) l3Yt°n°y×
wwmnÅnm )

x

4 B×

BF5B
yLa,bLa,bmwÅFnBF5B+MLk,hmX+wt+ ) lm )Å+lX+Lk,hX))

m+M-+M+ lxLk,hX)

° +M

° +M

ysyxnt°ytn

Åo1O

LB-041HlM/M)

HI

B Aytnxmmmm

B A
1O

Btt

βmmtt

BC5 %55 B

Å°nHIÅ
C [JVβnC57.(%+((1Om1Omt

BC5 %55 B

n441u°

m

1Otwu°

B Am°n
HIV

1O°

1Owt°

t B AyBC5 %55 B
1O441mB Aym°°B Ayy

1. Ai Leen Koh, Kui Bao et al, ACS Nano 10(2009), pp 3015–3022°v
nmmmnstntH)InmÅmLB-05LRS)SM)+)+°yt
Å,(&tnxyv

BV

mynBV°t°

Åw°ynv

7NBVMmm7NBV 0& rBV y)))nm
4NK N%BLPNYYNYmBV)(

snyny°

xnmn L wÅyyss
m7Nw
Å

BV y°

4NK N%BLPNYYNY

m7N

J[ BV

BV

7NBV°y7NsmH)In1. T. Kimura et al., Jpn. J. Appl. Phys. 56 (2017) 100307 (3 pages).

LB-06

LRSM))+Fm)(gFmx

3C °βyÅuH)Intn)gxtsnm+mxFH IÅFÅmnmmβm

3Cg°yÅgFJ K nmm°t
L n

1. M. E. Dickinson1, A. M. Flenniken2, X. Ji, et al., Nature 537 (2016) 508-514
2. M. Tamura, M. Hosoya, M. Fujita, et al., Hum. Mol. Genet. 22 (2013) 2471-2481
3. Y. Takeda, K. Hamada, Rigaku Journal 30(2014)17-22n(&-,g]W NT+3C

LB-07MLAITSM)+)+mB5ÅuttnomymÅmwtntwtx°xβxH)In°ymB5mwtym°nm

6 2o°Åyy,ywt

1os

m

K%C 3W
6 O& ) nm
B5°t°x,

m
B5°yβ

161

x°n

P168

LB-08MM))m)

mmm)

t

7NBVÅym

mC6Cy

BV y7NBV°°tuu

mn+ -jKy

4NK N%BLPNYYNY

m+((a+ -jn+-(jyytÅtyLmyn
7NBV ynm

BV°JymBVyttnmBVxBVxnmm7NBV ).&,J[ BVysnmÅwt

7N%BV 7N%7N BV%BV°m+((jnymLB-09oledhnXP)+α+)

FHM+β,,+,E3%3W

E33W

mstysnE3nmE3mE33WnnE3xy×°°xmE3yymE3%3W

6 2m3W

mE3tB5msym°)

mE3°nm°

mE3%)(&/ [ 3WÅ+m°

mE3μ~tnmnmE3y°nLB-10M))

S)

M)

3BAB
3 5m°Åsnotmxm”xH)In3 5hm
Åt76mxÅYYWY3 5ÅunPlant Morphology 28 (2016) 15-21°
Å°t,ymn°β°m

wÅm°76m
B565%B5n×n1.

m

YYWY3 5 imnmm°w

×nm
wÅ65%

LB-11H)-dn

3PW GW VOR)

eM+,++,mtwt

H)Inxm4βB5Åox

B5 %

44tym

8W V +tÅnmtm)

°yβw

B5tnw

8W V +

B5 %inm

H I°tnÅ°”°xnnmym
Åt°ymÅyn) 8W V +B5 %4

1. J. Li et al., Appl. Phys. Lett. 100 (2012) 152903(1)-152903(3).
2. W. Wu et al., Phys. Rev. Lett. 108 (2012) 077203(1)- 077203(5).

LB-12LRSBSX))

tttyw

mymy°sÅ

H Iy+&- B L(&-)&&+&nm

B L°ynn(&(+ B L°

N[ JT)/8((+(+ny)((jnwn

B BH)Is,&+ B LBÅymstmm

LB-13hnXHn)

3 LRSM))

s%T VN°m6PWM+ ysmxtnsÅβt“β6PWM+xxβsm°n°xmwtn
Åm6PWM+

m6PWM+°°yβx°nymmβxt

m6PWM+nxtyt°wmtmnH)In6PWM+

m6PWM+°

wÅn°

ym6PWM+

Åuy6PWM+

mm %T VNymtmtsn°

1. Kan-o M, Takeya R, et al. Biol. Open, (2012) 1, 889–896.

LB-14

3HLRSM)

g+EI,,)

+-.

+,-p.

3 5mmyttytn

6T WT M×t3F+3 )tn,&n

3F+3 )°m
B4mtnm)nmym

6T WT MmÅ3 5m

6T WT MÅuÅttny°

6T WT M°(&(-Åt3 5nnpm°xnpm

4 YL XJVm

3 5(&-2Bm°mmnm°snnp

LB-15LACS)))

3& 2JLPNTN[3NV[YN MN BL NVLNLTNJ YN

OypwttnyH)Im O
mB T LWV WVVtm”

TJ[WY Bumx-(jm+&,-d)( Lt°yn-((jm-.(V%y°xOBtm O%Bt)(SND °nV&°npx
B °yO)&0Bm+(VxBmw

m O°nwÅB°”mmn°y)(Vy°nV&m°O).

)((j°xtBwÅvtnpB

J[ NYNmt°

V aMN TJyÅÅN[ MN BL NVLNmyt& 2W YLW°tn

Åyn

1. M. Baleva et al., Phys. Rev. B 72 (2005) 115330-(1-7).

LB-16hnXLACSGMLCH))

C546my“

Åy°°°

n

5Cβ°

BC5 %46tntn
46 Ånt°yst

C5 %46 °n°°mtt°myv

BC5 %46m

BC5BC5 %46yC5 %”mtt°mn°t+(( SDmy(&.

mux5C

1. K. Kimura et al., J. Electron Microscopy 54(2005) 373–377.

m

C5 %46mnm5Cnm°)+( Votn°yyH)Isβxmtn

YJMmyyv°ÅmLB-17ARmh)M)mmmsmm

mnytnmnyy

XYWXTJ[NTN[ °r, gtymym°ym

H) + - .Im°OT LWXYW[N V7K

2NYVJYM%BW T NYJsmeKmH+In]WV E TTNKYJVM+°7

K D

meymm,Inymsyme

Fm, gmymeHmynmsmm

H+InOYJy°°

H.In

1.
(),°, p. 137-145, 2015.
2. Suzuki H, Tanoue K, Yamazaki H: Histochemistry, 96: 31-39, 1991.
3. Suzuki H, Yamazaki H, Tanoue K: Progr Histochem Cytochem 30: 1-109, 1996.
4. Kunishima S, Nishimura S, Suzuki H, et al: Eur J Haematol. 92: 276-82, 2014.
5.
,, 40: 124-127, 2005.
6.
(),s-state of arts Ver.3, p.733-736, 2005

LB-18

Site location analysis of Au dopants in Cu6Sn5 intermetallic compound by Cs-corrected STEM
Wenhui Yang1, Tomokazu Yamamoto1, Kazuhiro Nogita2, Syo Matsumura1
1
Department of Applied Quantum Physics and Nuclear Engineering, Kyushu University,
2
Nihon Superior Centre for the Manufacture of Electronic Materials (NS CMEM), School of Mechanical and Mining
Engineering, The University of Queensland

Cu6Sn5 is an important intermetallic compound in soldering and electronic packaging. It is formed at theinterface between molten solder and substrate during the soldering process, and the evolution ofmicrostructure and properties also occurs in service. Zeng et.al reveled that Au and Zn are stabilization
alloying elements for hexagonal η-Cu6Sn5 intermetallic [1]. To understand of stabilization mechanisms atatom scale, in this work, we performed direct observation for dopants in Cu6Sn5 intermetallic codoped withAu and Ni elements using high-angle annular dark-ﬁeld (HAADF) imaging and atomic-resolution chemical
mapping with aberration-corrected (Cs-corrected) scanning transmission electron microscopy (STEM). It
was found that Cu6Sn5 doped with Au and Ni has hexagonal structure. HAADF-STEM and atomic-resolution
STEM-EDXS mapping reveled that Au atoms occupy the Cu1 sites in η-Cu6Sn5 although Ni dopant site
location is still unclear.
1. G. Zeng et al., Intermetallics 43 (2013) 85-98.