192
Y. Min et al.
98. Abargues R, Albert S, Valdés JL, Abderrafi K, Martínez-Pastor JP (2012) Molecular-mediated
assembly of silver nanoparticles with controlled interparticle spacing and chain length. J Mater
Chem 22:22204–22211
99. Bönnemann H, Waldöfner N, Haubold HG, Vad T (2002) Preparation and characterization of
three-dimensional Pt nanoparticle networks. Chem Mater 14:1115–1120
100. Li N, Binder WH (2011) Click-chemistry for nanoparticle-modification. J Mater Chem
21:16717–16734
101. Escorihuela J, Marcelis ATM, Zuilhof H (2015) Metal-free click chemistry reactions on
surfaces. Adv Mater Interfaces 2:1500135
102. Zhu J, Kell AJ, Workentin MS (2006) A retro-Diels–Alder reaction to uncover maleimidemodified surfaces on monolayer-protected nanoparticles for reversible covalent assembly. Org
Lett 8:4993–4996
103. Voggu R, Suguna P, Chandrasekaran S, Rao CNR (2007) Assembling covalently linked
nanocrystals and nanotubes through click chemistry. Chem Phys Lett 443:118–121
104. Hua C, Zhang WH, De Almeida SRM, Ciampi S, Gloria D, Liu G, Harper JB, Gooding JJ
(2012) A novel route to copper(II) detection using ‘click’ chemistry-induced aggregation of
gold nanoparticles. Analyst 137:82–86
105. Sander F, Fluch U, Hermes JP, Mayor M (2014) Dumbbells, trikes and quads: organicinorganic hybrid nanoarchitectures based on “clicked” gold nanoparticles. Small 10:349–359
106. Zhou Y, Wang S, Zhang K, Jiang X (2008) Visual detection of copper(II) by azide- and alkynefunctionalized gold nanoparticles using click chemistry. Angew Chem Int Ed 47:7454–7456
107. Xu X, Daniel WL, Wei W, Mirkin CA (2010) Colorimetric Cu(2+) detection using DNAmodified gold-nanoparticle aggregates as probes and click chemistry. Small 6:623–626
108. Zhang Y, Li B, Xu C (2010) Visual detection of ascorbic acid via alkyne-azide click reaction
using gold nanoparticles as a colorimetric probe. Analyst 135:1579–1584
109. Rianasari I, de Jong MP, Huskens J, van der Wiel WG (2013) Covalent coupling of nanoparticles with low-density functional ligands to surfaces via click chemistry. Int J Mol Sci
14:3705–3717
110. Liu Y, Williams MG, Miller TJ, Teplyakov AV (2016) Nanoparticle layer deposition for highly
controlled multilayer formation based on high-coverage monolayers of nanoparticles. Thin
Solid Film 598:16–24
111. Upadhyay AP, Behara DK, Sharma GP, Bajpai A, Sharac N, Ragan R, Pala RGS, Sivakumar
S (2013) Generic process for highly stable metallic nanoparticle-semiconductor heterostructures via click chemistry for electro/photocatalytic applications. ACS Appl Mater Interfaces
5:9554–9562
112. Locatelli E, Ori G, Fournelle M, Lemor R, Montorsi M, Comes Franchini M (2011) Click
chemistry for the assembly of gold nanorods and silver nanoparticles. Chem Eur J 17:9052–
9056
113. Liu Y, RamaRao N, Miller T, Hadjipanayis G, Teplyakov AV (2013) Controlling physical properties of iron nanoparticles during assembly by “click chemistry”. J Phys Chem
C 117:19974–19983
114. Ja´ nczewski D, Tomczak N, Liu S, Han M-Y, Vancso GJ (2010) Covalent assembly of functional inorganic nanoparticles by “click” chemistry in water. Chem Commun 46:3253–3255
115. Bielski R, Witczak Z (2013) Strategies for coupling molecular units if subsequent decoupling
is required. Chem Rev 113:2205–2243
116. DeVries GA, Brunnbauer M, Hu Y, Jackson AM, Long B, Neltner BT, Uzun O, Wunsch BH,
Stellacci F (2007) Divalent metal nanoparticles. Science 315:358–361
117. Andryszewski T, Iwan M, Hołdy´ nski M, Fiałkowski M (2016) Synthesis of a free-standing
monolayer of covalently bonded gold nanoparticles. Chem Mater 28:5304–5313
118. Maneeprakorn W, Malik MA, O’Brien P (2010) Developing chemical strategies for the
assembly of nanoparticles into mesoscopic objects. J Am Chem Soc 132:1780–1781
119. Aldeek F, Ji X, Mattoussi H (2013) Quenching of quantum dot emission by fluorescent
gold clusters: what it does and does not share with the Förster formalism. J Phys Chem C
117:15429–15437
Y. Min et al.
98. Abargues R, Albert S, Valdés JL, Abderrafi K, Martínez-Pastor JP (2012) Molecular-mediated
assembly of silver nanoparticles with controlled interparticle spacing and chain length. J Mater
Chem 22:22204–22211
99. Bönnemann H, Waldöfner N, Haubold HG, Vad T (2002) Preparation and characterization of
three-dimensional Pt nanoparticle networks. Chem Mater 14:1115–1120
100. Li N, Binder WH (2011) Click-chemistry for nanoparticle-modification. J Mater Chem
21:16717–16734
101. Escorihuela J, Marcelis ATM, Zuilhof H (2015) Metal-free click chemistry reactions on
surfaces. Adv Mater Interfaces 2:1500135
102. Zhu J, Kell AJ, Workentin MS (2006) A retro-Diels–Alder reaction to uncover maleimidemodified surfaces on monolayer-protected nanoparticles for reversible covalent assembly. Org
Lett 8:4993–4996
103. Voggu R, Suguna P, Chandrasekaran S, Rao CNR (2007) Assembling covalently linked
nanocrystals and nanotubes through click chemistry. Chem Phys Lett 443:118–121
104. Hua C, Zhang WH, De Almeida SRM, Ciampi S, Gloria D, Liu G, Harper JB, Gooding JJ
(2012) A novel route to copper(II) detection using ‘click’ chemistry-induced aggregation of
gold nanoparticles. Analyst 137:82–86
105. Sander F, Fluch U, Hermes JP, Mayor M (2014) Dumbbells, trikes and quads: organicinorganic hybrid nanoarchitectures based on “clicked” gold nanoparticles. Small 10:349–359
106. Zhou Y, Wang S, Zhang K, Jiang X (2008) Visual detection of copper(II) by azide- and alkynefunctionalized gold nanoparticles using click chemistry. Angew Chem Int Ed 47:7454–7456
107. Xu X, Daniel WL, Wei W, Mirkin CA (2010) Colorimetric Cu(2+) detection using DNAmodified gold-nanoparticle aggregates as probes and click chemistry. Small 6:623–626
108. Zhang Y, Li B, Xu C (2010) Visual detection of ascorbic acid via alkyne-azide click reaction
using gold nanoparticles as a colorimetric probe. Analyst 135:1579–1584
109. Rianasari I, de Jong MP, Huskens J, van der Wiel WG (2013) Covalent coupling of nanoparticles with low-density functional ligands to surfaces via click chemistry. Int J Mol Sci
14:3705–3717
110. Liu Y, Williams MG, Miller TJ, Teplyakov AV (2016) Nanoparticle layer deposition for highly
controlled multilayer formation based on high-coverage monolayers of nanoparticles. Thin
Solid Film 598:16–24
111. Upadhyay AP, Behara DK, Sharma GP, Bajpai A, Sharac N, Ragan R, Pala RGS, Sivakumar
S (2013) Generic process for highly stable metallic nanoparticle-semiconductor heterostructures via click chemistry for electro/photocatalytic applications. ACS Appl Mater Interfaces
5:9554–9562
112. Locatelli E, Ori G, Fournelle M, Lemor R, Montorsi M, Comes Franchini M (2011) Click
chemistry for the assembly of gold nanorods and silver nanoparticles. Chem Eur J 17:9052–
9056
113. Liu Y, RamaRao N, Miller T, Hadjipanayis G, Teplyakov AV (2013) Controlling physical properties of iron nanoparticles during assembly by “click chemistry”. J Phys Chem
C 117:19974–19983
114. Ja´ nczewski D, Tomczak N, Liu S, Han M-Y, Vancso GJ (2010) Covalent assembly of functional inorganic nanoparticles by “click” chemistry in water. Chem Commun 46:3253–3255
115. Bielski R, Witczak Z (2013) Strategies for coupling molecular units if subsequent decoupling
is required. Chem Rev 113:2205–2243
116. DeVries GA, Brunnbauer M, Hu Y, Jackson AM, Long B, Neltner BT, Uzun O, Wunsch BH,
Stellacci F (2007) Divalent metal nanoparticles. Science 315:358–361
117. Andryszewski T, Iwan M, Hołdy´ nski M, Fiałkowski M (2016) Synthesis of a free-standing
monolayer of covalently bonded gold nanoparticles. Chem Mater 28:5304–5313
118. Maneeprakorn W, Malik MA, O’Brien P (2010) Developing chemical strategies for the
assembly of nanoparticles into mesoscopic objects. J Am Chem Soc 132:1780–1781
119. Aldeek F, Ji X, Mattoussi H (2013) Quenching of quantum dot emission by fluorescent
gold clusters: what it does and does not share with the Förster formalism. J Phys Chem C
117:15429–15437