135. Yu T, Zeng Y, Chen J, Li Y-Y, Yang G, Li Y (2013) Exceptional dendrimer-based mimics of
diiron hydrogenase for the photochemical production of hydrogen. Angew Chem Int Ed 52
(21):5631–5635. doi:10.1002/anie.201301289
136. Roy S, Shinde S, Hamilton GA, Hartnett HE, Jones AK (2011) Artificial [FeFe]-hydrogenase:
on resin modification of an amino acid to anchor a hexacarbonyldiiron cluster in a peptide
framework. Eur J Inorg Chem 7:1050–1055. doi:10.1002/ejic.201000979
137. Sano Y, Onoda A, Hayashi T (2012) Photocatalytic hydrogen evolution by a diiron hydrogenase model based on a peptide fragment of cytochrome c 556 with an attached diiron carbonyl
cluster and an attached ruthenium photosensitizer. J Inorg Biochem 108:159–162.
doi:10.1016/j.jinorgbio.2011.07.010
138. Onoda A, Kihara Y, Fukumoto K, Sano Y, Hayashi T (2014) Photoinduced hydrogen
evolution catalyzed by a synthetic diiron dithiolate complex embedded within a protein
matrix. ACS Catal 4(8):2645–2648. doi:10.1021/cs500392e
139. Jian J-X, Liu Q, Li Z-J, Wang F, Li X-B, Li C-B, Liu B, Meng Q-Y, Chen B, Feng K, Tung
C-H, Wu L-Z (2013) Chitosan confinement enhances hydrogen photogeneration from a
mimic of the diiron subsite of [FeFe]-hydrogenase. Nat Commun 4:2695. doi:10.1038/
ncomms3695
140. Reisner E, Powell DJ, Cavazza C, Fontecilla-Camps JC, Armstrong FA (2009) Visible lightdriven H 2 production by hydrogenases attached to dye-sensitized TiO 2 nanoparticles. J Am
Chem Soc 131(51):18457–18466. doi:10.1021/ja907923r
141. King PW (2013) Designing interfaces of hydrogenase–nanomaterial hybrids for efficient
solar conversion. Bioenergetics 1827(8–9):949–957. doi:10.1016/j.bbabio.2013.03.006
142. Kleingardner JG, Kandemir B, Bren KL (2013) Hydrogen evolution from neutral water under
aerobic conditions catalyzed by cobalt microperoxidase-11. J Am Chem Soc 136(1):4–7.
doi:10.1021/ja406818h
143. Sommer DJ, Vaughn MD, Ghirlanda G (2014) Protein secondary-shell interactions enhance
the photoinduced hydrogen production of cobalt protoporphyrin-IX. Chem Commun 50
(100):15852–15855. doi:10.1039/C4CC06700B
144. Wang W, Rauchfuss TB, Bertini L, Zampella G (2012) Unsensitized photochemical hydrogen production catalyzed by diiron hydrides. J Am Chem Soc 134(10):4525–4528.
doi:10.1021/ja211778j
145. Bertini L, Fantucci P, De Gioia L, Zampella G (2013) Excited state properties of diiron
dithiolate hydrides: implications in the unsensitized photocatalysis of H 2 evolution. Inorg
Chem 52(17):9826–9841. doi:10.1021/ic400818t
146. Frederix PWJM, Adamczyk K, Wright JA, Tuttle T, Ulijn RV, Pickett CJ, Hunt NT (2014)
Investigation of the ultrafast dynamics occurring during unsensitized photocatalytic H 2
evolution by an [FeFe]-hydrogenase subsite analogue. Organometallics 33(20):5888–5896.
doi:10.1021/om500521w
147. Majumdar A (2014) Bioinorganic modeling chemistry of carbon monoxide dehydrogenases:
description of model complexes, current status and possible future scopes. Dalton Trans 43
(32):12135–12145. doi:10.1039/c4dt00729h
148. Gourlay C, Nielsen DJ, White JM, Knottenbelt SZ, Kirk ML, Young CG (2006) Paramagnetic active site models for the molybdenum À copper carbon monoxide dehydrogenase.
J Am Chem Soc 128(7):2164–2165. doi:10.1021/ja056500f
149. Takuma M, Ohki Y, Tatsumi K (2005) Sulfido-bridged dinuclear molybdenum À copper
complexes related to the active site of CO dehydrogenase: [(dithiolate)Mo(O)S2Cu(SAr)]
2À (dithiolate¼1,2-S2C6H4, 1,2-S2C6H2-3,6-Cl2, 1,2-S2C2H4). Inorg Chem 44
(17):6034–6043. doi:10.1021/ic050294v
150. Groysman S, Majumdar A, Zheng S-L, Holm RH (2009) Reactions of monodithiolene
tungsten(VI) sulfido complexes with copper(I) in relation to the structure of the active site
of carbon monoxide dehydrogenase. Inorg Chem 49(3):1082–1089. doi:10.1021/ic902066m
270
L. Gan et al.
diiron hydrogenase for the photochemical production of hydrogen. Angew Chem Int Ed 52
(21):5631–5635. doi:10.1002/anie.201301289
136. Roy S, Shinde S, Hamilton GA, Hartnett HE, Jones AK (2011) Artificial [FeFe]-hydrogenase:
on resin modification of an amino acid to anchor a hexacarbonyldiiron cluster in a peptide
framework. Eur J Inorg Chem 7:1050–1055. doi:10.1002/ejic.201000979
137. Sano Y, Onoda A, Hayashi T (2012) Photocatalytic hydrogen evolution by a diiron hydrogenase model based on a peptide fragment of cytochrome c 556 with an attached diiron carbonyl
cluster and an attached ruthenium photosensitizer. J Inorg Biochem 108:159–162.
doi:10.1016/j.jinorgbio.2011.07.010
138. Onoda A, Kihara Y, Fukumoto K, Sano Y, Hayashi T (2014) Photoinduced hydrogen
evolution catalyzed by a synthetic diiron dithiolate complex embedded within a protein
matrix. ACS Catal 4(8):2645–2648. doi:10.1021/cs500392e
139. Jian J-X, Liu Q, Li Z-J, Wang F, Li X-B, Li C-B, Liu B, Meng Q-Y, Chen B, Feng K, Tung
C-H, Wu L-Z (2013) Chitosan confinement enhances hydrogen photogeneration from a
mimic of the diiron subsite of [FeFe]-hydrogenase. Nat Commun 4:2695. doi:10.1038/
ncomms3695
140. Reisner E, Powell DJ, Cavazza C, Fontecilla-Camps JC, Armstrong FA (2009) Visible lightdriven H 2 production by hydrogenases attached to dye-sensitized TiO 2 nanoparticles. J Am
Chem Soc 131(51):18457–18466. doi:10.1021/ja907923r
141. King PW (2013) Designing interfaces of hydrogenase–nanomaterial hybrids for efficient
solar conversion. Bioenergetics 1827(8–9):949–957. doi:10.1016/j.bbabio.2013.03.006
142. Kleingardner JG, Kandemir B, Bren KL (2013) Hydrogen evolution from neutral water under
aerobic conditions catalyzed by cobalt microperoxidase-11. J Am Chem Soc 136(1):4–7.
doi:10.1021/ja406818h
143. Sommer DJ, Vaughn MD, Ghirlanda G (2014) Protein secondary-shell interactions enhance
the photoinduced hydrogen production of cobalt protoporphyrin-IX. Chem Commun 50
(100):15852–15855. doi:10.1039/C4CC06700B
144. Wang W, Rauchfuss TB, Bertini L, Zampella G (2012) Unsensitized photochemical hydrogen production catalyzed by diiron hydrides. J Am Chem Soc 134(10):4525–4528.
doi:10.1021/ja211778j
145. Bertini L, Fantucci P, De Gioia L, Zampella G (2013) Excited state properties of diiron
dithiolate hydrides: implications in the unsensitized photocatalysis of H 2 evolution. Inorg
Chem 52(17):9826–9841. doi:10.1021/ic400818t
146. Frederix PWJM, Adamczyk K, Wright JA, Tuttle T, Ulijn RV, Pickett CJ, Hunt NT (2014)
Investigation of the ultrafast dynamics occurring during unsensitized photocatalytic H 2
evolution by an [FeFe]-hydrogenase subsite analogue. Organometallics 33(20):5888–5896.
doi:10.1021/om500521w
147. Majumdar A (2014) Bioinorganic modeling chemistry of carbon monoxide dehydrogenases:
description of model complexes, current status and possible future scopes. Dalton Trans 43
(32):12135–12145. doi:10.1039/c4dt00729h
148. Gourlay C, Nielsen DJ, White JM, Knottenbelt SZ, Kirk ML, Young CG (2006) Paramagnetic active site models for the molybdenum À copper carbon monoxide dehydrogenase.
J Am Chem Soc 128(7):2164–2165. doi:10.1021/ja056500f
149. Takuma M, Ohki Y, Tatsumi K (2005) Sulfido-bridged dinuclear molybdenum À copper
complexes related to the active site of CO dehydrogenase: [(dithiolate)Mo(O)S2Cu(SAr)]
2À (dithiolate¼1,2-S2C6H4, 1,2-S2C6H2-3,6-Cl2, 1,2-S2C2H4). Inorg Chem 44
(17):6034–6043. doi:10.1021/ic050294v
150. Groysman S, Majumdar A, Zheng S-L, Holm RH (2009) Reactions of monodithiolene
tungsten(VI) sulfido complexes with copper(I) in relation to the structure of the active site
of carbon monoxide dehydrogenase. Inorg Chem 49(3):1082–1089. doi:10.1021/ic902066m
270
L. Gan et al.