Metal oxide-organic frameworks (MOOFs), a new series of coordination hybrids constructed from molybdenum(vi) oxide and bitopic 1,2,4-triazole linkers

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Metal oxide-organic frameworks (MOOFs), a new series of coordination hybrids constructed from molybdenum(vi) oxide and bitopic 1,2,4-triazole linkers Andrey B. Lysenko, a Ganna A. Senchyk, a Jörg Lincke, b Daniel Lässig, b Andrey A. Fokin, c Ekaterina D. Butova, c Peter R. Schreiner, d Harald Krautscheid b and Konstantin V. Domasevitch a a Inorganic Chemistry Department, National Taras Shevchenko University of Kyiv, Volodimirska Street 64, Kyiv 01033, Ukraine. E-mail: dk@univ.kiev.ua b Institut für Anorganische Chemie, Universität Leipzig, Linnéstraße 3, D-04103 Leipzig, Deutschland c Department of Organic Chemistry, Kiev Polytechnic Institute, Peremogy Ave 37, Kyiv 03056, Ukraine. d Institut für Organische Chemie, Justus-Liebig Universität, Heinrich-Buff-Ring 58, 35392 Giessen, Deutschland SUPPORTING INFORMATION Details for weak interactions (convenient hydrogen bonding OH---O, NH---N,O; weak hydrogen bonding CH---O) in the structures 1-7

2 Table S1 Weak interactions in structures [Mo 4 O 12 (tr 2 eth) 2 ] 1, [Mo 2 O 6 (tr 2 cy)] 3 and [MoO 3 (trtz)] 7 (Type A) Donor Hydrogen Acceptor D A/ Å D-H/ Å H A/ Å DH A/ o [Mo 4 O 12 (tr 2 eth) 2 ] (1) C1 H1 O6 (1.5-x, 1.5-y, -0.5+z) 2.972(14) 0.94 2.35 123.2 C2 H2 O4 (1.5-x, 1.5-y, 0.5+z) 3.148(15) 0.94 2.39 137.9 C4 H4 O5 2.961(14) 0.94 2.23 134.3 C5 H5 O3 (1.5-x, 1.5-y, -0.5+z) 3.039(14) 0.94 2.30 135.2 [Mo 2 O 6 (tr 2 cy)] (3) C1 H1 O3 (0.5+x, 0.5-y, 1-z) 2.949(7) 0.94 2.33 122.7 C2 H2 O1 (-x, 0.5-y, z) 3.079(7) 0.94 2.34 134.7 [MoO 3 (trtz)] (7) Conventional hydrogen bonding: The bifurcated NH N,O bond of tetrazole group N7 H1N N6 (-0.5-x, 0.5-y, 0.5-z) 2.937(3) 0.87 2.42 118.6 N7 H1N O2 (-0.5+x, y, 0.5-z) 3.004(3) 0.87 2.23 147.9 Weak hydrogen bonding CH O C1 H1 O3 (0.5-x, -y, 0.5+z) 3.018(3) 0.94 2.29 134.0 C2 H2 O2 (0.25-y, x-0.25, z-0.25) 2.938(2) 0.94 2.30 124.3

3 Table S2 Weak interactions in structures [Mo 2 O 6 (tr 2 pr)] 2, [Mo 2 O 6 (tr 2 ad)] 6H 2 O 4 and [Mo 2 O 6 (4,9-tr 2 dia)] 0.5H 2 O 5 (Type B). Donor Hydrogen Acceptor D A/ Å D-H/ Å H A/ Å DH A/ o [Mo 2 O 6 (tr 2 pr)] (2) C1 H1 O6 (0.5-x, 2-y, -0.5+z) 3.165(5) 0.93 2.32 150.6 C2 H2 O3 (0.5-x, 2-y, 0.5+z) 2.889(5) 0.93 2.39 113.4 C3 H3 O2 (1-x, -0.5+y, -0.5-z) 3.040(5) 0.93 2.29 137.2 C4 H4 O5 (1-x, -0.5+y, 0.5-z) 3.158(5) 0.93 2.50 128.0 [Mo 2 O 6 (tr 2 ad)] 6H 2 O (4) Conventional hydrogen bonding OH O O5 H1W O1 (1+x, y, z) 2.886(3) 0.86 2.03 171.9 O5 H2W O7 2.703(5) 0.83 1.88 174.5 O6 H3W O2 (0.5-x, y-0.5, z-0.5) 2.965(3) 0.82 2.16 170.3 O6 H3W O5 (1-x, -0.5+y, -z) 2.753(3) 0.86 1.89 172.4 O7 a) H5W O8 (0.5+x, y, -0.5-z) 2.749(3) 0.89 1.87 169.2 O8 H6W O4 (-x, -0.5+y, -z) 3.085(3) 0.83 2.32 154.2 O8 H7W O6 2.807(4) 0.89 2.00 151.1 Weak hydrogen bonding CH O C1 H1 O4 (-x, 1-y, -z) 3.120(3) 0.94 2.35 139.4 C2 H2 O2 (0.5-x, 1-y, -0.5+z) 3.162(3) 0.94 2.40 137.6 a) Atom O7 is situated on a mirror plane, only one H atom is unique (H5W). [Mo 2 O 6 (4,9-tr 2 dia)] 0.5H 2 O (5) C1 H1 O3 (0.5-x, 1.5-y, 1-z) 3.057(3) 0.93 2.23 146.7

4 Figure S1. Weak CH O hydrogen bonding in the structure of [Mo 2 O 6 (tr 2 cy)] (3). Symmetry codes: a) x, 1-y, 0.5-z; b) 0.5+x, 0.5-y, 1-z; c) x, 0.5-y, z.

5 Figure S2. Weak CH O hydrogen bonding in the structure of [MoO 3 (trtz)] (7). Symmetry codes: a) 0.5-x, -y, 0.5+z; b) 0.25-y, 0.25+x, -0.25+z.

6 Figure S3. The bifurcated hydrogen bonding of the tetrazole group in the structure of [MoO 3 (trtz)] (7), viewed along the direction of Mo-oxide helices. Symmetry codes: c) -0.5-x, 0.5-y, 0.5-z; d) -0.5+x, y, 0.5-z. When neglecting N7-H---O2d branch of this bifurcated bond, the hydrogen bonded dimer tetrazole/tetrazole provides simple connection of the ligands into extended linker between MoO 3 helices. This convenient scheme was used for the discussion of the resulting 3D structure, as five-fold interpenetrated asf framework. However, taking into account the additional NH--- O interactions (which completely cross all the interpenetrated nets), the interpenetration disappears and a single 3D framework of complex topology is found.

7 Figure S4. Weak CH O hydrogen bonding in the structure of [Mo 2 O 6 (tr 2 ad)] 6H 2 O (4) Symmetry codes: a) x, 0.5-y, z; b) -0.5+x, y, -0.5-z; c) x, 1-y, -z; d) 0.5-x, 1-y, -0.5+z.

8 Figure S5. Weak CH O hydrogen bonding in the structure of [Mo 2 O 6 (4,9-tr 2 dia)] 0.5H 2 O (5) Symmetry codes: a) x, y, z; b) x, 2-y, 2-z; c) x, 2-y, 2-z; d) 0.5-x, 1.5-y, 1-z. Figure S6. Weak CH O hydrogen bonding in the structure of [Mo 4 O 12 (1,6-tr 2 dia)] 2H 2 O (6).

9 Note the CH O bonding with aliphatic diamantane skeleton and the structural role of solvate water molecule. Also notable feature is a specific O π interaction with the triazole ring: O5 C(N) 3.069-3.411 Å; O5 π 3.029 Å. Table S3 Weak interactions in structure [Mo 4 O 12 (1,6-tr 2 dia)] 2H 2 O (6). Donor Hydrogen Acceptor D A/ Å D-H/ Å H A/ Å DH A/ o O7 H2W O4 (1-x, 1-y, 1-z) 3.168(5) 0.86 2.31 171.4 O7 H1W O5 3.000(5) 0.86 2.14 171.3 C1 H1 O7 (1-x, 1-y, 1-z) 3.227(6) 0.94 2.44 141.0 C7 H7B O5 (-x, 1-y, 1-z) 3.444(4) 0.98 2.50 162.4 C2 H2 O6 (-x, -y, 1-z) 3.215(4) 0.94 2.28 172.1