342
J. Handzlik
74. Kissin YV, Brandolini AJ (2008) Chemistry of olefin polymerization reactions with
chromium-based catalysts. J Polym Sci Part A Polym Chem 46:5330–5347
75. Fong A, Vandervelden C, Scott SL, Peters B (2018) Computational support for Phillips catalyst
initiation via Cr-C bond homolysis in a chromacyclopentane site. ACS Catal 8:1728–1733
76. Gierada M, Handzlik J (2018) Computational insights into reduction of the Phillips CrO x /SiO 2
catalyst by ethylene and CO. J Catal 359:261–271
77. Shelimov BN, Elev IV, Kazansky VB (1986) Use of photoreduction for activation of silicamolybdena catalysts for propylene metathesis: comparison with thermal reduction. J Catal
98:70–81
78. Vikulov KA, Elev IV, Shelimov BN, Kazansky VB (1989) IR and UV-vis spectroscopic studies of the stable Mo=CH 2 carbene complexes over photoreduced silica-molybdena catalysts
with chemisorbed cyclopropane, and their role in olefin metathesis reactions. J Mol Catal
55:126–145
79. Zhang B, Liu N, Lin Q, Jin D (1991) The effects of Mo oxidation states on olefin metathesis.
J Mol Catal 65:15–28
80. Handzlik J, Ogonowski J, Stoch J, Mikołajczyk M, Michorczyk P (2006) Properties and
metathesis activity of molybdena-alumina, molybdena-silica-alumina and molybdena-silica
catalysts—a comparative study. Appl Catal A Gen 312:213–219
81. Balcar H, Mishra D, Marceau E, Carrier X, Žilková N, Bastl Z (2009) Molybdenum oxide
catalysts for metathesis of higher 1-alkenes via supporting MoO 2 (acetylacetonate) 2 and
MoO 2 (glycolate) 2 on SBA-15 mesoporous molecular sieves. Appl Catal A Gen 359:129–135
82. Amakawa K, Wrabetz S, Kröhnert J, Tzolova-Müller G, Schlögl R, Trunschke A (2012) In
situ generation of active sites in olefin metathesis. J Am Chem Soc 134:11462–11473
83. Amakawa K, Kröhnert J, Wrabetz S, Frank B, Hemmann F, Jäger C, Schlögl R, Trunschke A
(2015) Active sites in olefin metathesis over supported molybdena catalysts. ChemCatChem
7:4059–4065
84. Lwin S, Wachs IE (2014) Olefin metathesis by supported metal oxide catalysts. ACS Catal
4:2505–2520
85. Ding K, Gulec A, Johnson AM, Drake TL, Wu W, Lin Y, Weitz E, Marks LD, Stair PC (2016)
Highly efficient activation, regeneration, and active site identification of oxide-based olefin
metathesis catalysts. ACS Catal 6:5740–5746
86. Banares MA, Fierro JLG, Moffat JB (1993) The partial oxidation of methane on MoO 3 /SiO 2
catalysts: influence of the molybdenum content and type of oxidant. J Catal 142:406–417
87. Ohler N, Bell AT (2005) Selective oxidation of methane over MoO x /SiO 2 : isolation of the
kinetics of reactions occurring in the gas phase and on the surfaces of SiO 2 and MoO x . J Catal
231:115–130
88. Ohler N, Bell AT (2006) Study of the elementary processes involved in the selective oxidation
of methane over MoO x /SiO 2 . J Phys Chem B 110:2700–2709
89. Thielemann JP, Hess C (2012) Structure of silica-supported molybdenum oxide studied by
in situ spectroscopy under reactive and non-reactive conditions. J Catal 288:124–126
90. Thielemann JP, Hess C (2013) Monitoring silica supported molybdenum oxide catalysts at
work: a Raman spectroscopic study. ChemPhysChem 14:441–447
91. Ono T, Anpo M, Kubokawa Y (1986) Catalytic activity and structure of MoO 3 highly dispersed
on SiO 2 . J Phys Chem 90:4780–4784
92. Banares MA, Hu HC, Wachs IE (1994) Molybdena on silica catalysts: role of preparation methods on the structure-selectivity properties for the oxidation of methanol. J Catal 150:407–420
93. Zhang W, Desikan A, Oyama ST (1995) Effect of support in ethanol oxidation on molybdenum
oxide. J Phys Chem 99:14468–14476
94. Biermann JJP, Janssen FJJG, Ross JRH (1992) Nitrogen containing species as intermediates
in the oxidation of ammonia over silica supported molybdena catalysts. Appl Catal A Gen
86:165–179
95. Hu H, Wachs IE, Bare SR (1995) Surface structures of supported molybdenum oxide catalysts:
characterization by Raman and Mo L 3 -edge XANES. J Phys Chem 99:10897–10910
J. Handzlik
74. Kissin YV, Brandolini AJ (2008) Chemistry of olefin polymerization reactions with
chromium-based catalysts. J Polym Sci Part A Polym Chem 46:5330–5347
75. Fong A, Vandervelden C, Scott SL, Peters B (2018) Computational support for Phillips catalyst
initiation via Cr-C bond homolysis in a chromacyclopentane site. ACS Catal 8:1728–1733
76. Gierada M, Handzlik J (2018) Computational insights into reduction of the Phillips CrO x /SiO 2
catalyst by ethylene and CO. J Catal 359:261–271
77. Shelimov BN, Elev IV, Kazansky VB (1986) Use of photoreduction for activation of silicamolybdena catalysts for propylene metathesis: comparison with thermal reduction. J Catal
98:70–81
78. Vikulov KA, Elev IV, Shelimov BN, Kazansky VB (1989) IR and UV-vis spectroscopic studies of the stable Mo=CH 2 carbene complexes over photoreduced silica-molybdena catalysts
with chemisorbed cyclopropane, and their role in olefin metathesis reactions. J Mol Catal
55:126–145
79. Zhang B, Liu N, Lin Q, Jin D (1991) The effects of Mo oxidation states on olefin metathesis.
J Mol Catal 65:15–28
80. Handzlik J, Ogonowski J, Stoch J, Mikołajczyk M, Michorczyk P (2006) Properties and
metathesis activity of molybdena-alumina, molybdena-silica-alumina and molybdena-silica
catalysts—a comparative study. Appl Catal A Gen 312:213–219
81. Balcar H, Mishra D, Marceau E, Carrier X, Žilková N, Bastl Z (2009) Molybdenum oxide
catalysts for metathesis of higher 1-alkenes via supporting MoO 2 (acetylacetonate) 2 and
MoO 2 (glycolate) 2 on SBA-15 mesoporous molecular sieves. Appl Catal A Gen 359:129–135
82. Amakawa K, Wrabetz S, Kröhnert J, Tzolova-Müller G, Schlögl R, Trunschke A (2012) In
situ generation of active sites in olefin metathesis. J Am Chem Soc 134:11462–11473
83. Amakawa K, Kröhnert J, Wrabetz S, Frank B, Hemmann F, Jäger C, Schlögl R, Trunschke A
(2015) Active sites in olefin metathesis over supported molybdena catalysts. ChemCatChem
7:4059–4065
84. Lwin S, Wachs IE (2014) Olefin metathesis by supported metal oxide catalysts. ACS Catal
4:2505–2520
85. Ding K, Gulec A, Johnson AM, Drake TL, Wu W, Lin Y, Weitz E, Marks LD, Stair PC (2016)
Highly efficient activation, regeneration, and active site identification of oxide-based olefin
metathesis catalysts. ACS Catal 6:5740–5746
86. Banares MA, Fierro JLG, Moffat JB (1993) The partial oxidation of methane on MoO 3 /SiO 2
catalysts: influence of the molybdenum content and type of oxidant. J Catal 142:406–417
87. Ohler N, Bell AT (2005) Selective oxidation of methane over MoO x /SiO 2 : isolation of the
kinetics of reactions occurring in the gas phase and on the surfaces of SiO 2 and MoO x . J Catal
231:115–130
88. Ohler N, Bell AT (2006) Study of the elementary processes involved in the selective oxidation
of methane over MoO x /SiO 2 . J Phys Chem B 110:2700–2709
89. Thielemann JP, Hess C (2012) Structure of silica-supported molybdenum oxide studied by
in situ spectroscopy under reactive and non-reactive conditions. J Catal 288:124–126
90. Thielemann JP, Hess C (2013) Monitoring silica supported molybdenum oxide catalysts at
work: a Raman spectroscopic study. ChemPhysChem 14:441–447
91. Ono T, Anpo M, Kubokawa Y (1986) Catalytic activity and structure of MoO 3 highly dispersed
on SiO 2 . J Phys Chem 90:4780–4784
92. Banares MA, Hu HC, Wachs IE (1994) Molybdena on silica catalysts: role of preparation methods on the structure-selectivity properties for the oxidation of methanol. J Catal 150:407–420
93. Zhang W, Desikan A, Oyama ST (1995) Effect of support in ethanol oxidation on molybdenum
oxide. J Phys Chem 99:14468–14476
94. Biermann JJP, Janssen FJJG, Ross JRH (1992) Nitrogen containing species as intermediates
in the oxidation of ammonia over silica supported molybdena catalysts. Appl Catal A Gen
86:165–179
95. Hu H, Wachs IE, Bare SR (1995) Surface structures of supported molybdenum oxide catalysts:
characterization by Raman and Mo L 3 -edge XANES. J Phys Chem 99:10897–10910