閲戠磵绫虫潗鏂欏洜鍏跺劒(y艒u)鐣扮殑绌�(w臎n)瀹氭�с�佸皬灏哄琛ㄩ潰鏁堟噳(y墨ng)銆佸厜瀛�(xu茅)鏁堟噳(y墨ng)浠ュ強鐛�(d煤)鐗圭殑鐢熺墿瑕拰鎬у湪鏈夋(j墨)鍌寲[1]銆佺敓鐗╅啱(y墨)钘�[2]銆佺敓鐗╂垚鍍�[3,4]銆侀鍝佹娓�[5]銆佸寲濡濆搧[6]浠ュ強鍏夐浕鏉愭枡[7,8]绛夐牁(l菒ng)鍩熶腑鏈夎憲宸ㄥぇ鐨勬噳(y墨ng)鐢ㄥ児鍊�銆備緥濡�, Vahid Raeesi绛変汉鍒╃敤閲戠磵绫虫鑸�DNA閫氶亷鑷祫瑁濈殑琛岀偤鎴愬姛鐨勬(g貌u)寤轰簡鍏锋湁钘ョ墿鍌抽仦鍔熻兘鐨勮秴绱氱祼(ji茅)妲�(g貌u)[2]銆�
鐧鹃潏濞佹彁渚涘绋(gu墨)鏍肩殑绱嶇背妫�銆佺磵绫崇睜銆佺磵绫崇矑瀛愮瓑閲戠磵绫虫潗鏂欏姪鍔涙偍鐨勭瀛�(xu茅)鐮旂┒銆�
- 鍒嗘暎鎬�銆佺┅(w臎n)瀹氭�уソ
- 楂樻瘮琛ㄩ潰绌�锛岄珮璨�(f霉)杓夐噺
- 瀹夊叏鐠�(hu谩n)淇濈劇姹℃煋
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鍦� 1锛氶暦寰戞瘮鐐�3.6鐨勯噾绱嶇背妫掔殑闆婚彙鍦�
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鍦� 2锛氶暦寰戞瘮鐐�4.3鐨勯噾绱嶇背妫掔殑闆婚彙鍦�
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鍦� 3锛氶暦寰戞瘮鐐�5.4鐨勯噾绱嶇背妫掔殑闆婚彙鍦�
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鍦� 4锛氶暦寰戞瘮鐐�5.8鐨勯噾绱嶇背妫掔殑闆婚彙鍦�
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鈻� 閲戠磵绫虫
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涓枃鍚嶇ū
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鑻辨枃鍚嶇ū
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琛ㄩ潰淇＞
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闀峰緫姣�
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瑕�(gu墨)鏍�
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閲戠磵绫虫
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Gold nanorods
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CTAB/ sodium citrate e/PEG-(COOH/NH2/OCH3)
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2
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0.1 mg/mL dispersion in water, diam.: 39 nm, length: 82.6 nm, λ: 610 nm
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2.5
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0.1 mg/mL dispersion in water, diam.: 20 nm, length: 50 nm, λ: 660 nm
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2.9
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0.1 mg/mL dispersion in water, diam.: 18.9 nm, length: 55 nm, λ: 700 nm
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3.2
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0.1 mg/mL dispersion in water, diam.: 24.6 nm, length: 79.1 nm, λ: 730 nm
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鈻� 閲戠磵绫崇矑瀛�
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鐢�(ch菐n)鍝佺法铏�
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涓枃鍚嶇ū
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琛ㄩ潰淇＞鍩哄湗(tu谩n)
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瑕�(gu墨)鏍�
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976628
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Gold nanoparticles sodium citrate-coated
閲戠磵绫崇矑瀛愭妾吀閳変慨椋�
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sodium citrate
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50 ug/mL dispersion in water, diam.: 20 nm, λ: 519 - 521 nm, O.D.: 1
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943880
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50 ug/mL dispersion in water, diam.: 40 nm, λ: 524 - 526 nm, O.D.: 1
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966303
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50 ug/mL dispersion in water, diam.: 60 nm, λ: 534 - 536 nm, O.D.: 1
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968346
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50 ug/mL dispersion in water, diam.: 80 nm, λ: 546 - 548 nm, O.D.: 1
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910980
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50 ug/mL dispersion in water, diam.: 100 nm, λ: 562 - 566 nm, O.D.: 1
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鈻� 鏇村閲戠磵绫虫潗鏂�
鈻� 閫氱敤鐢�(ch菐n)鍝�:
Reference
[1] Bondarenko G N, Beletskaya I P. Activated carbon as an efficient support for gold nanoparticles that catalyze the hydrogenation of nitro compounds with molecular hydrogen[J]. Mendeleev Communications, 2015, 25(6):443-445.
[2] Raeesi V, Chou L Y T, Chan W C W. Tuning the Drug Loading and Release of DNA鈥�Assembled Gold鈥�Nanorod Superstructures[J]. Advanced Materials, 2016. 28(38):8511-8518.
[3] Li M, Zhang Z S, Zhang X, et al. Optical properties of Au/Ag core/shell nanoshuttles.[J]. Optics Express, 2008, 16(18):14288-14293.
[4] Comenge J, Fragueiro O, Sharkey J, et al. Preventing Plasmon Coupling Between Gold Nanorods Improves the Sensitivity of Photoacoustic Detection of Labelled Stem Cells In Vivo.[J]. Acs Nano, 2016, 10(7), 7106–7116.
[5] 鐜嬮噾鍕�,妤婃瘏姊�.绱嶇背閲戝湪椋熷搧姹℃煋鐗╂娓腑鐨勭爺绌堕��(j矛n)灞�[J].涓湅椋熷搧琛�(w猫i)鐢熼洔蹇�, 2016, 28(4):546-549.
[6] Lee J B, Hwang D, Han D W, et al. Cosmetic composition e.g. milky lotion and pack used for preventing skin aging, comprises gold nanoparticles surface treated with mixed solution comprising organic acid chosen from gallic acid and protocatechuic acid, and isoflavone: WO. WO2012173312[P]. 2016.
[7] Tong P, Cui Y, Hao Y, et al. Improving Performance of Organic Solar Cells with PEG-coated Gold Nanorods Doped in the Active Layer[C]. Asia Communications and Photonics Conference. 2015.
[8] Wu R, Yang B, Zhang C, et al. Prominent Efficiency Enhancement in Perovskite Solar Cells Employing Silica-Coated Gold Nanorods[J]. Journal of Physical Chemistry C, 2016, 120(13): 6996-7004.