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$BK\%;%C%7%g%s$O!VH/I=#1#2J,!\F$O@#8J,!W$H$7$^$9!#(B
$B!!K\%;%C%7%g%s$O!V%]%9%?!<%;%C%7%g%s!W$H0lBN$G9=@.$5$l$k$?$a!$%W%m%0%i%`JT@.>e!$%]%9%?!
$B:G=*99?7F|;~!'(B2016-01-20 13:09:01
$B$3$NJ,N`$G$h$/;H$o$l(B $B$F$$$k%-!<%o!<%I(B | $B%-!<%o!<%I(B | $B | |
---|---|---|---|
nanoparticle | 4$B7o(B | ||
low-temperature | 2$B7o(B | ||
heterocoagulation | 2$B7o(B | ||
free energy analysis | 1$B7o(B |
$B | $B9V1iBjL\!?H/I=$B%-!<%o!<%I(B | $BH/I=7A<0(B | |
---|---|---|---|
4 | Cu2O$B%J%NN3;R$N:n@=$H$=$N@\9gFC@-(B | Cuprous oxide low-temperature metal-metal bonding | O |
13 | [$B>7BT9V1i(B] $B9bJ,2r8w3X82Hy6@$G8+$kI97k>=$NI=LLM;2r(B | Surface melting, ice optical microscopy | O |
16 | [$B>7BT9V1i(B] $B9)3X$K;D$5$l$?Bg$-$JJ,Ln(B:$B$-$o$a$FD94|4V$K$o$?$k0BA43NJ]$,5a$a$i$l$kGQ4~J*$N8e;OKv!=9b%l%Y%kJ| | process at material interface clay minerals high-level waste | O |
39 | PMMA$BCr7?$K$h$k%U%'%N!<%k | carbon hard template physical activation | O |
46 | $B0eNE2hA|?GCGMQ(BGd$B2=9gJ*C4;}(BAu/SiO2$BN3;R$N3+H/(B | Gd component Au nanoparticle | O |
47 | $BDc29>r7o2<$K$*$1$k%"%k%_%JGvKl:n@=K!$N3+H/(B | alumina film low-temperature | O |
65 | $BE`7k4%AgA`:n$rMxMQ$7$??eJ,;6(BMg-Al$B7OJ#?e;@2=J*%J%N%7!<%H$N:F9=C[(B | nanosheet layered double hydroxide freeze-drying | O |
66 | $B%0%i%U%H:?$rM-$9$k2YEE@-%J%NN3;R$X$N9ZAG%j%>%A!<%`$N5[Ce$H$=$N3h@-(B | charged polymer particle epoxy group graft polymer chain | O |
78 | Pd/Pt$B%3%"%7%'%k7?%J%NN3;R$N:n@=$H$=$N?(G^FC@-(B | platinum nanoparticle core-shell | O |
229 | $BCb2=C:AG8w?(G^$r4pHW$H$9$kB@M[8w2a;@2=?eAG9g@.(B | photocatalysis hydrogen peroxide sunlight | O |
244 | $B1?F0$9$kJ4N3BN$K$"$i$o$l$kFC0[E*$J=V4VE*!&2aEOE*%b%k%U%)%m%8!<(B | powdery object instantaneous fingerprint morphology oscillatory motion | O |
287 | $B5,B'%7%j%+B?9&BN$K$*$1$kLS4I6E=L2aDx$N%b%G%k2=(B | Capillary condensation Molecular simulation Adsorption hysteresis | O |
293 | $BN37B$N0[$J$k%J%N%7%j%+J,;67O2D5U%2%k$NN.F05sF0(B | nanosilica reversible gel viscosity jump | O |
310 | $BEE>l1~Ez@-%3%"FbJq7?Cf6uN3;R$N9=B$@)8f$K4X$9$k8!F$(B | hollow particle electric field structure control | O |
311 | ZnO$B%J%N%3%s%]%8%C%HF)L@Kl$X$NM6EE@-%J%NN3;RE:2C$K$h$k7V8wA}6/8z2L(B | nanocomposite fluorescence dielectric | O |
331 | $B<+A38wMxMQ7?0lJ}8~%U%m!<$K$h$kM-5!8w?(G^Kl$N@QAX%j%"%/%?!<(B | water purification photocatalyst flow system | O |
339 | $BB?9&@-G[0L:xBN$N(BX$B@~9=B$2r@O$K4p$E$/%2!<%H5[Ce5sF0$N7W;;2J3XE*8!F$(B | metal-organic framework gate adsorption free energy analysis | O |
348 | $BC1J,;6%]%j%^!<>.N3;R$X$N<'>l1~Ez@-IUM?$N$?$a$N%X%F%m6E=8$H%7%j%+HoJ$(B | silica-coating heterocoagulation magnetic responsivity | O |
361 | $BMOG^4xH/K!!&D>@\Ij3hK!$rMQ$$$?9bI=LL@Q%J%N%]!<%i%9%+!<%\%s$N9g@.(B | Nanoporous carbon Template method Direct activation | O |
369 | DNA-mediated shape shift of nanoparticle superstructures for biomedical applications | Nanoparticle imaging Drug delivery system | O |
390 | $BCf4V6K@-H?1~MOG^$NMxMQ$K$h$kI=LLAB?e2=2aDxCf$G$N%J%NN3;R$NJ,;60BDj@-(B | dispersion stability intermediate polarity surface hydrophobization | O |
436 | $B%b%j%V%G%s;@%+%k%7%&%`%J%NN3;R9g@.$HH/8wFC@-(B | Phosphor nanoparticle hydrothermal synthesis | O |
467 | $B%7%j%3!<%sL}E)$H%]%j%^! | golf ball-like particle silicon oil droplets heterocoagulation | O |
547 | $B?eCfL}E)$rMQ$$$?%,%i%9%S!<%:$NG=F0M"Aw(B | active transport oil droplet | O |
549 | $B%$%=%V%A%l%s!>L5?e%^%l%$%s;@6&=E9gBN$rMQ$$$?9bG;EY%"%k%_%J%9%i%j!<$N%2%k2=5sF0$N2r@O(B | Gelation Alumina Slurry Poly(isobutylene-alt-maleic anhydride) | O |
565 | $B8:054%Ag2<$G$N%3%m%$%@%k%U%!%$%P!<<+H/7A@.%a%+%K%:%`(B | colloidal fibers drying phase separation | O |
604 | $B?eAj@O=P=E9g$X$N%$%*%s@-3&LL3h@-:^HyNLE:2C$K$h$kC1J,;6%]%j%^!<%J%NN3;R$N9g@.(B | Monodisperse Polymer nanoparticles surfactant | O |
679 | $B7+$jJV$7J,;6!&J, | carbon nanotubes dispersion and printing quality-quantity tradeoff | O |
683 | 2$B@.J,N3;R$N<+8JAH?%2=$rMxMQ$7$?2DF0BNFbJq7?%3%m%$%I7k>=$N:n@=(B | self-assembly bimodal size distribution non-close-packed | O |
727 | $BL}E)$NKl:Y9&F)2a$K4X$9$k?tCM%7%_%e%l!<%7%g%s(B | Lattice Boltzmann method Two-phase flow membrane permeation | O |
765 | $B%^%$%/%m%U%k%$%G%#%/%9$HKl5;=Q$rM;9g$7$?%@%V%k%(%^%k%7%g%sD4@=K!$N3+H/(B | microfluidics membrane emulsion | O |
783 | $BB?9& | plasma-induced graft polymerization porous substrate graft polymer characteristics | O |
795 | $B%S!<%:%_%k$K$h$k9bJ,;6%]%j%^!<%3!<%F%#%s%0%7%j%+%U%#%i!<$ND4@=(B | Silica filler Polymer coating Disintegration | O |
805 | $B2aK0OB8=>]$rMxMQ$7$?Fq?eMO@-Lt:^$N2DMO2=(B | drug soluplus solubility | O |
849 | $BN3;R7B@)8f$7$?%<%*%i%$%H7?:xBN7k>=(BZIF-8$B$N@EE*!&F0E*5[CeFC@-(B | ZIF-8 diffusion surface barrier | O |
877 | $B3&LLH?1~>l$H$7$F$N(BAOT$B%Y%7%/%kKl>l%G%6%$%s(B | Membranome AOT Vesicle PADPA | O |