Symmetry In Coordination Chemistry, 2014. ,
, Chem. Soc. Rev, vol.30, issue.6, pp.355-366, 2001.
, Handbook on the physics and chemistry of rare earths, vol.26, 1999.
Yttrium & the Lanthanides: Inorganic & Coordination Chemistry, Encyclopedia of Inorganic and Bioinorganic Chemistry ,
, Ltd, p.195, 2011.
, Encyclopedia of Inorganic Chemistry, p.284, 2006.
Niels Bohr's times, in physics, philosophy, and polity, Reprint, 1993. ,
Lanthanides and actinides, Facts on File, 2011. ,
Lanthanides and actinides, vol.1, 1991. ,
Lanthanide and actinide chemistry, 2007. ,
« Syntheses and characterization of three lanthanide(III) complexes containing pyridine-3,5-dicarboxylic acid and oxalic acid ligands, J. Coord. Chem, vol.62, p.60, 2009. ,
« A series of lanthanide complexes based on pyridine-3,5-dicarboxylate and succinate ligands: syntheses, structures and properties, CrystEngComm, vol.16, p.6797, 2014. ,
Electronic Structure, Encyclopedia of Inorganic and Bioinorganic Chemistry, p.2009, 2012. ,
« The origin and dissemination of the term "ligand" in chemistry, Polyhedron, vol.2, issue.1, pp.1-7, 1983. ,
, Compendium of chemical terminology: IUPAC recommendations
, , 1997.
Introduction to coordination chemistry, 2010. ,
On inner metal-complex salts, Journal of Chemical Education, vol.50, issue.10, p.698, 1973. ,
« Terpenes to platinum: The chemical career of Lev Aleksandrovich Chugaev, J. Chem. Educ, vol.40, p.656, 1963. ,
Comprehensive coordination chemistry II: from biology to nanotechnology, 2004. ,
Cotton, « Proposed nomenclature for olefin-metal and other organometallic complexes, J. Am. Chem. Soc, vol.90, pp.6230-6232, 1968. ,
, Exploring weak intermolecular interactions in thiocyanate-bonded
Cd(II) complexes with methylimidazole: crystal structures, Hirshfeld surface analysis and luminescence properties, RSC Advances, vol.8, pp.23891-23902, 2018. ,
The rare earth elements: fundamentals and applications, 2012. ,
« Introduction to Coordination Chemistry, Inorganic Chemistry, pp.553-590, 2013. ,
, Synthesis of Coordination Compounds and Coordination Polymers, pp.189-217, 2017.
, , p.61
, Acta Crystallographica Section E Structure Reports Online, vol.62, issue.5, pp.1027-1029, 2006.
Crystal Structure and Luminescent Properties of One Coordination Polymer of Copper(II) Achieved from Pyridine-3,5-dicarboxylate », Journal of Chemical Crystallography, vol.40, issue.4, pp.332-336, 2010. ,
-methyl-1H-imidazol-1-yl) methyl)benzene and Different Carboxylate Ligands, Synthesis, Structure, and Properties of Coordination Polymers Based on, vol.1, p.288, 2018. ,
Design and construction of a new class of scaffolding-like materials comprising infinite polymeric frameworks of 3D-linked molecular rods. A reappraisal of the zinc cyanide and cadmium cyanide structures and the synthesis and structure of the diamond-related frameworks ,
, J. Am. Chem. Soc, vol.112, pp.1546-1554, 1990.
« Crystal Engineering of Novel Materials Composed of Infinite Two-and Three-Dimensional Frameworks, Supramolecular Architecture, vol.499, pp.256-273, 1992. ,
, Three-Dimensional Framework with Channeling Cavities for Small Molecules:{[M2(4, 4 -bpy)3(NO3)4]·xH2O}n(M Co, Ni, Zn) », vol.36, pp.1725-1727, 1997.
« Design and synthesis of an exceptionally stable and highly porous metal-organic framework, Nature, vol.402, pp.276-279, 1999. ,
« Coordination polymers and metal-organic frameworks: materials by design, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences, vol.375, p.20160032, 2017. ,
« Assembly Chemistry of Coordination Polymers, Modern Inorganic Synthetic Chemistry, pp.207-225, 2011. ,
« Design and synthesis of metal-organic frameworks using metal-organic polyhedra as supermolecular building blocks, Chem. Soc. Rev, vol.38, issue.5, p.62, 2009. ,
« Coordination polymers, metal-organic frameworks and the need for terminology guidelines, CrystEngComm, vol.14, issue.9, p.3001, 2012. ,
« Influence of Water Content on the Self-Assembly of Metal?Organic Frameworks Based on Pyridine-3,5-dicarboxylate », Inorg. Chem, vol.45, issue.6, pp.2430-2437, 2006. ,
« Rational Design of Metal-Organic Frameworks Based on 5-(4-Pyridyl)tetrazolate: From 2D Grids to 3D Porous Networks », Eur. J. Inorg. Chem, 2004. ,
,
, Toward Intersecting Channels from a Neutral Network with a bcu-Type Topology, vol.117, pp.6217-6221, 2005.
, Hydrothermal Preparation of Novel Cd(II) Coordination Polymers Employing 5-(4-Pyridyl)tetrazolate as a Bridging Ligand, vol.41, pp.6544-6546, 2002.
« A Novel One-Dimensional Zinc Coordination Polymer, Zeitschrift für anorganische und allgemeine Chemie, vol.630, pp.1367-1370, 2004. ,
, Hydrogen storage in metal-organic frameworks, vol.9, pp.438-448, 2007.
« Hydrogen bond studies. 85. A very short, asymmetrical, intramolecular hydrogen bond: A neutron diffraction study of pyridine 2,3 dicarboxylic acid (C 7 H 5 NO 4) », J. Chem Phys, vol.60, issue.10, pp.3866-3874, 1974. ,
« Syntheses, structures and photophysical properties of Zn-Ln coordination polymers, Polyhedron, vol.98, pp.154-161, 2015. ,
« Syntheses, structures, and magnetic properties of two series of copper-lanthanide heterometallic coordination polymers based on pyridine-2,3-dicarboxylic acid and succinic acid, CrystEngComm, vol.19, issue.4, p.63, 2017. ,
« A Series of Copper-Lanthanide Heterometallic Coordination Polymers Derived from Pyridine-2,3-dicarboxylic Acid and in situ Generated Succinic Acid », Eur. J. Inorg. Chem, vol.2016, issue.7, pp.1060-1067, 2016. ,
« Hydrothermal synthesis, crystal structure and magnetic characterization of two 4f-3d heterometallic coordination polymers », Inorganica Chimica Acta, vol.363, issue.5, pp.1008-1012, 2010. ,
« Two dimensional porous 3d-4f heterometallic coordination polymers constructed by pyridine-2,3-dicarboxylic acid, CrystEngComm, vol.17, pp.3852-3858, 2015. ,
« Syntheses and characterizations of two novel Ln(III)-Cu(II) coordination polymers constructed by Pyridine-2,4-dicarboxylate ligand ,
, , vol.5, pp.366-368, 2002.
« Unprecedented ferromagnetic interaction in an erbium(III)-copper(II) coordination polymer, J. Mol. Struct, vol.885, pp.23-27, 2008. ,
« Twofold interpenetration corrugated brick wall frameworks of 3d?4f heterometallic coordination polymers », Inorg. Chem. Communs, vol.11, issue.8, pp.840-842, 2008. ,
, CCDC 1406387: Experimental Crystal Structure Determination, 2015.
« A series of three-dimensional 3d-4f heterometallic coordination frameworks based on pyridinedicarboxylic acid, Struct Chem, vol.21, issue.5, pp.923-929, 2010. ,
« Synthesis and X-ray crystal structures of a series of 3d-4f lanthanide complexes: lanthanide(III)-copper(II) coordination polymers with 2,5-pyridinedicarboxylic acid ligand, Transit. Met. Chem, vol.34, issue.6, pp.655-661, 2009. ,
pyridine-2,5-dicarboxylato)copper(II)diytterbium(III)] monohydrate] », Acta Crystallographica Section E Structure Reports Online, vol.67, issue.5, pp.615-616, 2011. ,
, A Series of Three-Dimensional Lanthanide-Rigid-Flexible Frameworks: Synthesis, Structure, and Luminescent Properties of Coordination Polymers with 2,5-Pyridine Dicarboxylic Acid and Adipic Acid, vol.9, p.64, 2009.
« Photoluminescent 3D Lanthanide?Organic Frameworks with 2,5-Pyridinedicarboxylic and 1,4-Phenylenediacetic Acids, Cryst. Growth Des, vol.8, issue.7, pp.2505-2516, 2008. ,
« Synthesis, crystal structure, and magnetic properties of two 3d-4f heterometallic coordination polymers, Polyhedron, vol.30, pp.3197-3201, 2011. ,
« Crystal engineering with coordination compounds of NiII, CoII, and CrIII bearing dipicolinic acid driven by the nature of the noncovalent interactions, CrystEngComm, vol.16, p.5352, 2014. ,
« Lanthanide triple helical complexes with a chiral ligand derived from 2,6-pyridinedicarboxylic acid ? », J. Chem. Soc, vol.18, pp.2655-2662, 2001. ,
Hirshfeld Surfaces Analysis, Electrical Properties and Equivalent Circuit », A New Mononuclear Complex: Structure, Vibrational (FT-IR and Raman), vol.6, 2016. ,
, Structural Systematics for Lanthanide(III) Systems: Interactions of the Achiral
III) Cation with Tris(dipicolinato)lanthanate(III) Anions », Australian Journal of Chemistry, vol.70, issue.5, p.485, 2017. ,
,
« 3D hydrogen bonded heteronuclear CoII, NiII, CuII and ZnII aqua complexes derived from dipicolinic acid », Inorganica Chimica Acta, vol.360, issue.2, pp.506-512, 2007. ,
« Interesting properties of p-, d-, and f-block elements when coordinated with dipicolinic acid and its derivatives as ligands: their use as inorganic pharmaceuticals, Rev. Inorg. Chem, vol.35, issue.2, 2015. ,
« Synthesis and catalytic activity of manganese(II) complexes of heterocyclic carboxylic acids: X-ray crystal structures of, vol.2, p.2 ,
, chedam=chelidamic acid(4-hydroxypyridine-2,6-dicarboxylic acid)
, Polyhedron, vol.21, issue.11, pp.1063-1071, 2002.
, The Crystal Structure of Dipicolinic Acid Monohydrate, vol.46, p.65, 1973.
Soy in health and disease prevention, 2006. ,
« Nature of the reactive intermediates from the iron-induced activation of hydrogen peroxide: agents for the ketonization of methylenic carbons, the monooxygenation of hydrocarbons, and the dioxygenation of aryl olefins, J. Am. Chem. Soc, vol.114, issue.9, pp.3445-3455, 1992. ,
« Interconversion and Reactivity of Two Heterometallic Tin-Containing Cuboidal Clusters from ,
, Inorg. Chem, vol.35, pp.5525-5530, 1996.
« Synthesis, crystal structure, and magnetic properties of two 3d-4f heterometallic coordination polymers, Polyhedron, vol.30, pp.3197-3201, 2011. ,
Structures, and Photoluminescence of Lanthanide Coordination Polymers Based on 4-Oxo-1,4-dihydro-2,6-pyridinedicarboxylic acid, Zeitschrift für anorganische und allgemeine Chemie, vol.644, pp.301-307, 2018. ,
« A porous 3D heterometal-organic framework containing both lanthanide and high-spin Fe(ii) ions », Chem Commun, vol.21, p.3113, 2009. ,
, Heterometallic coordination compounds of dipicolinic acid with Ce(III,IV) and Cu(II): Synthesis, crystal structure and spectral studies, vol.363, pp.2971-2976, 2010.
Zn (dipicH2=dipicolinic acid) -A combined crystallographic, spectroscopic and computational study, Polyhedron, vol.26, issue.7, pp.1364-1372, 2007. ,
Ln(dipic) 3 ]· n H 2 O (L = N , N -Aromatic Bidentate Ligand; dipic = Dipicolinate = pyridine-2,6-dicarboxylate) Containing Complex Ions of D 3 Symmetry, Zeitschrift für anorganische und allgemeine Chemie, vol.636, pp.808-817, 2010. ,
Crystallographic data for cinchomeronic acid and its hydrochloride, Acta Crystallographica, vol.16, issue.10, pp.1074-1074, 1963. ,
, The Crystal Structure of Cinchomeronic Acid, vol.46, p.66, 1973.
, Polymorphism in Crystalline Cinchomeronic Acid, vol.13, pp.1222-1230, 2007.
, Polymorphism and hydrogen bonding in cinchomeronic acid: a variable temperature experimental and computational study, vol.10, p.1404, 2008.
Xu et R. Cao « Syntheses, structures and photoluminescence of a series of lanthanide-organic frameworks involving in situ ligand formation », Journal of Solid-State Chemistry, vol.182, issue.3, pp.421-427, 2009. ,
« Two series of novel 3D potentially porous heterometallic Cu-Ln coordination frameworks assembled by 3,4-pyridinedicarboxylic acid with different topologies and channels: syntheses, structures, luminescence and magnetic properties, RSC Advances, vol.5, pp.15059-15068, 2015. ,
« Syntheses and characterizations of four metal coordination polymers constructed by the pyridine-3,5-dicarboxylate ligand, Polyhedron, vol.27, issue.2, pp.583-592, 2008. ,
8) Net Constructed by Trinuclear Mixed-Valence Cobalt Clusters, Cryst. Growth Des, vol.3, issue.5, pp.980-983, 2007. ,
« Template-assisted self-assembly: Synthesis, structures, and magnetic properties of lanthanide(III)-cobalt(II) coordination complexes constructed with deprotonated 3,5-pyridinedicarboxylic acid ligand, Inorg Chem Communs, vol.13, issue.10, pp.1178-1183, 2010. ,
« Fine-tuning the effects of auxiliary ligands on two trigonal-bipyramid cobalt( II ) complexes exhibiting field-induced slow magnetic relaxation », New J. Chem, vol.42, issue.11, pp.8583-8590, 2018. ,
Polycarboxylate Crystal Reorganization to One-and Two-Dimensional Nanostructures: Crystal Disassembly and Reassembly, Cryst. Growth Des, vol.6, issue.7, pp.738-745, 2018. ,
« A novel copper(II)-lanthanum(III) metal organic framework as a selective catalyst for the aerobic oxidation of benzylic hydrocarbons and cycloalkenes, Catal. Sci. Technol, vol.6, issue.11, pp.3727-3736, 2016. ,
, « A Three-Dimensional Heterometallic Cu II -Gd III Coordination Polymer: Hydrothermal Synthesis, Crystal Structure, Thermal and Magnetic Properties, vol.43, pp.254-258, 2013.
« Water aggregate: Combination of octameric water cube and (H2O)20 cluster within 3d-4f heterometallic metal-organic coordination networks, Inorg Chem Communs, vol.11, issue.3, pp.314-317, 2008. ,
« A new 3-D microporous Ln(III)-Cu(I) framework constructed by pyridine-3,5-dicarboxylate, J. Coord. Chem, vol.62, pp.2290-2298, 2009. ,
« Isostructural lanthanide metal-organic frameworks comprised of left-handed helical chains: Synthesis, structure and luminescent properties, Inorg Chem Communs, vol.90, pp.69-72, 2018. ,
Heterometallic Cu II /Ln III polymers active in the catalytic aerobic oxidation of cycloalkenes under solvent-free conditions, Dalton Trans, vol.47, pp.13360-13367, 2018. ,
, Synthesis, Crystal Structures, and Properties of Novel Heterometallic La/Pr?Cu?K and
, Crystal Growth & Design, vol.10, issue.3, pp.1059-1067, 2010.
« Copper(II)-lanthanide(III) coordination polymers constructed from pyridine-2,5-dicarboxylic acid: Preparation, crystal structure and photoluminescence, Journal of Solid State Chemistry, vol.197, pp.489-498, 2013. ,
Springer handbook of crystal growth, 2010. ,
Early days of X-ray crystallography, 2013. ,
50 years progress in crystal growth: a reprint collection, p.68, 2004. ,
« Crystal Growth in Gels, pp.9-11, 2007. ,
Crystal Growth for Beginners: Fundamentals of Nucleation, Crystal Growth and Epitaxy, vol.3, 2017. ,
« Historical aspects of crystal growth technology, Journal of Crystal Growth, vol.211, pp.1-12, 2000. ,
, Crystal growth: from fundamentals to technology, 2004.
Introduction to crystal growth and characterization, 2014. ,
« Observing classical nucleation theory at work by monitoring phase transitions with molecular precision », Nature Communications, vol.5, p.5598, 2014. ,
« Nucleation of Crystals from Solution: Classical and Two-Step Models, Accounts of Chemical Research, vol.42, issue.5, pp.621-629, 2009. ,
« Role of clusters in nonclassical nucleation and growth of protein crystals, Proc Natl Acad Sci, vol.111, issue.5, pp.546-553, 2014. ,
Precipitation: basic principles and industrial applications, 1992. ,
, Effect of Additives on the Crystal Growth, 1997.
, Practical Physics Behind Growing Crystals of Biological Macromolecules, vol.19, pp.714-724, 2012.
URL : https://hal.archives-ouvertes.fr/hal-00724324
« Crystallization mechanisms in solution, J. Cryst. Growth, vol.90, p.14, 1988. ,
, Stochastic Theory of Nucleation in Open Molecular Systems », Zeitschrift für Physikalische Chemie, vol.169, pp.1-10, 1990.
Transport and stability, 1993. ,
, Crystal Growth Mechanisms: Energetics, Kinetics, and Transport, vol.25, p.69, 1970.
« Crystal Growth and Morphology: New Developments in an Integrated Hartman?PerdokConnected NetRoughening Transition Theory, Supported by Computer Simulations, Cryst. Growth Des, vol.4, issue.5, pp.905-913, 2004. ,
, On the relations between structure and morphology of crystals. I », vol.8, pp.49-52, 1955.
« The principle of close packing and the condition of thermodynamic stability of organic crystals, Acta Cryst, vol.18, pp.585-590, 1965. ,
« Structural disorder and transformation in crystal growth: direct observation of ring-opening isomerization in a metal-organic solid solution, IUCrJ, vol.1, issue.5, pp.318-327, 2014. ,
« Tackling a difficult question: how do crystals of coordination polymers form?, IUCrJ, vol.1, issue.5, pp.263-264, 2014. ,
« ROP relationships between coordination polymers and discrete complexes: discrete bowl-shaped isomers of a 2-dimensional {M4L3}n polymer, CrystEngComm, vol.6, p.408, 2004. ,
« Concomitant crystallization of two polymorphs-a ring and a helix: concentration effect on supramolecular isomerism, Chem. Commun, vol.36, p.4548, 2005. ,
« Self-Assembly, Structures, and Solution Dynamics of Emissive Silver Metallacycles and Helices », Inorg. Chem, vol.45, issue.11, pp.4423-4430, 2006. ,
« Ring-Opening Polymerization-An Introductory Review, Polymers, vol.5, issue.2, pp.361-403, 2013. ,
,
Review on the Synthesis and Characterization of Metal Organic Frameworks for Photocatalytic Water Purification, vol.9, p.52, 2019. ,
Research and Development Aspects on Chemical Preparation Techniques of Photoanodes for Dye Sensitized Solar Cells, International Journal of Photoenergy, vol.2014, pp.1-21, 2014. ,
« Solvothermal reactions: an original route for the synthesis of novel materials, J Mater Sci, vol.43, issue.7, pp.2104-2114, 2008. ,
« Solvothermal and hydrothermal processes: the main physico-chemical factors involved and new trends, Res Chem Intermed, vol.37, issue.5, p.70, 2011. ,
Handbook of hydrothermal technology, 2, 2013. ,
« Solvothermal Synthesis, Structure, and Properties of Metal Organic Framework Isomers Derived from a Partially Fluorinated Link, Crystal Growth & Design, vol.11, issue.4, pp.1215-1222, 2011. ,
« De facto methodologies toward the synthesis and scale-up production of UiO-66-type metal-organic frameworks and membrane materials, Dalton Trans, vol.44, 2015. ,
Crystals Growth in Gels, 1973. ,
, Crystals in gels and Liesegang rings
, Crystals in gels and Liesegang rings: in vitro veritas
, Advances in gel growth: A review, vol.4, pp.345-378, 1981.
, Crystal growth in gel media, vol.4, pp.527-548, 1982.
, Crystal growth in gels: Principle and applications, vol.90, pp.358-367, 1988.
, CCDC 615684: Experimental Crystal Structure Determination ». Cambridge Crystallographic Data Centre, 2008.
, Towards a phenomenological definition of the term 'gel' », vol.1, pp.5-17, 1993.
Molecular gels: materials with self-assembled fibrillar networks, 2006. ,
« Water Gelation by Small Organic Molecules, Chemical Reviews, vol.104, issue.3, pp.1201-1218, 2004. ,
« Crystal growth in gels, J. Chem. Educ, vol.62, issue.1, p.81, 1985. ,
Characterization of porous solids and powders: surface area, pore size and density, 2006. ,
, Geun Chang Hoang et Hyun Soon Lee, « Pore size control of silica gels in basic water conditions using sol-gel processing, Proceedings of 5th International Conference on, p.71
, , vol.1, pp.174-177, 1997.
, Situ Maps of Hydrogel Pores, vol.11, pp.204-212, 2017.
,
Physical and chemical properties of gels, J. Cryst. Growth, vol.205, issue.3, pp.375-381, 1999. ,
, Size Effects on Diffusion Processes within Agarose Gels », vol.86, pp.2710-2719, 2004.
Diffusion: mass transfer in fluid systems, 2009. ,
, Solute diffusion in hydrogels. », Polymer Gels and Networks, vol.6, pp.13-43, 1998.
, Ueber Diffusion, vol.170, p.1855
, Polymer, vol.23, issue.7, pp.1012-1026, 1982.
« Diffusion and Partitioning of Solutes in Agarose Hydrogels: The Relative Influence of Electrostatic and Specific Interactions », J. Phys. Chem. B, vol.107, pp.12126-12137, 2003. ,
, Hydrocolloid Applications: Gum technology in the food and other industries, 1997.
Manual of methods for general bacteriology ,
,
, , 1981.
, Economic botany: principles and practices. Dordrecht: Kluwer, 2001.
, Macroporous interconnected dextran scaffolds of controlled porosity for tissue-engineering applications, vol.26, pp.7436-7446, 2005.
Porous media: heat and mass transfer, transport and mechanics, 2009. ,
« Studies on the Chemical Constitution of Agar-agar. XXIV. Isolation of a New Disaccharide as a Reversion Product from Acidic Hydrolysate ,
, Chem. Soc. Jpn, vol.40, issue.6, p.72, 1967.
, Solute Diffusion within Hydrogels. Mechanisms and Models, vol.31, pp.8382-8395, 1998.
Bioanalytical chemistry, 2004. ,
« Dependence of the Pore Size of Silica Gels on the Acidity of the Medium », Phys. Chem. Glasses, vol.29, issue.6, pp.596-598, 2003. ,
Rosales-Hoz, « Crystal growth of inorganic, organic, and biological macromolecules in gels, Prog. Cryst. Growth Charact. Mater, vol.63, issue.3, pp.63-71, 2017. ,
Single crystal growth and characterization of holmium tartrate trihydrate, J. Cryst. Growth, vol.299, issue.2, pp.336-343, 2007. ,
« Growth of barium oxalate crystals in agar-agar gel and their characterization », Cryst. Res. Technol, vol.44, issue.1, pp.36-42, 2009. ,
« Theoretical aspects of the crystal growth in gel, Crystal Research and Technology, vol.22, issue.9, pp.1117-1119, 1987. ,
« The growth of group II-VI crystals in gels, J. Cryst. Growth, vol.11, issue.3, pp.255-259, 1971. ,
« Gel growth and perfection of orthorhombic potassium perchlorate single crystals, J. Cryst. Growth, vol.47, issue.2, pp.213-218, 1979. ,
Single crystal growth by gel technique and characterization of lithium hydrogen tartrate, J. Cryst. Growth, vol.412, pp.72-79, 2015. ,
, Growth of Single Crystals of Cuprous Oxide in Silica Gels at Near Ambient Temperatures, vol.222, pp.79-80, 1969.
« Experimental evidence for the stability of the depletion zone around a growing protein crystal under microgravity, Acta Crystallographica Section D Biological Crystallography, vol.57, issue.3, p.73, 2001. ,
Méthode expérimentale : Diffraction des rayons X sur monocristal ,
, Practical suggestions for better crystal structures, vol.15, pp.57-83, 2009.
« Choice of data-collection parameters based on statistic modelling, Acta Crystallogr D Biol Crystallogr, vol.59, issue.7, pp.1145-1153, 2003. ,
« Some notes on choices in data collection, Acta Crystallogr D Biol Crystallogr, vol.55, issue.10, pp.1771-1772, 1999. ,
X-ray crystallography, 2016. ,
« A method for location of the peaks in step-scan measured Bragg reflexions, Acta Cryst A, vol.30, pp.580-584, 1974. ,
« Computer analysis of step-scanned X-ray data, J. Appl. Crystallogr, vol.7, issue.5, pp.488-492, 1974. ,
, Structure Determination by X-ray Crystallography, 2013.
« The analysis of single-crystal Bragg reflections from profile measurements, J. Appl. Crystallogr, vol.11, issue.2, p.114, 1978. ,
Automation of the collection and processing of X-ray diffraction data -a generic approach, Acta Crystallogr D Biol Crystallogr, vol.58, issue.11, 2002. ,
« A general theory of X-ray diffraction in crystals, Acta Cryst, vol.23, pp.558-564, 1967. ,
« The minimum crystal size needed for a complete diffraction data set, Acta Crystallogr D Biol Crystallogr, vol.66, pp.393-408, 2010. ,
, Crystal Structure Determination, 2000.
« An empirical method for correcting diffractometer data for absorption effects, Acta Crystallogr A Found Crystallogr, vol.39, issue.1, pp.158-166, 1983. ,
, , 2018.
« WinGX suite for small-molecule single-crystal crystallography, J. Appl. Crystallogr, vol.32, issue.4, p.96, 1999. ,
, Crystallographic Computing System JANA2006: General features », Zeitschrift für Kristallographie -Crystalline Materials, vol.229, 2014.
« CRYSTALS version 12: software for guided crystal structure analysis, J Appl Crystallogr, vol.36, issue.6, pp.1487-1487, 2003. ,
« OLEX2 : a complete structure solution, refinement and analysis program, J. Appl ,
, , vol.42, pp.339-341, 2009.
, Thèse de doctorat de l'Université Henri Poincaré, 1998.
, Thèse de doctorat de l'Université Henri Poincaré, 2003.
, Covalent radii revisited, vol.21, p.2832, 2008.
« Stabilizing Perovskite Structures by Tuning Tolerance Factor: Formation of Formamidinium and Cesium Lead Iodide Solid-State Alloys, Chem. Mater, vol.28, issue.1, pp.284-292, 2016. ,
On uncertainty estimates of crystallographic quantities including cell-parameter uncertainties, J Appl Crystallogr, vol.43, issue.6, pp.1452-1455, 2010. ,
Fundamentals of crystallography, 1992. ,
« Remarks about protein structure precision, Acta Crystallogr D Biol Crystallogr, vol.55, issue.3, pp.583-601, 1999. ,
« Handling cell-parameter errors in crystallographic data, J. Appl. Crystallogr, vol.42, issue.5, pp.798-809, 2009. ,
Automated conformational analysis from crystallographic data. 4. Statistical descriptors for a distribution of torsion angles, Acta Crystallogr B Struct Sci, vol.47, issue.1, pp.62-67, 1991. ,
« Application of torsion angle molecular dynamics for efficient sampling of protein conformations, J. Comput. Chem, vol.26, pp.1565-1578, 2005. ,
« Description of steric relationships across single bonds, Experientia, vol.16, pp.521-523, 1960. ,
« Structural consequences of a molecular assembly that is deficient in hydrogen-bond acceptors, J. Chem. Soc., Chem. Commun, vol.16, p.97, 1992. ,
« Hydrogen bonds as design elements in organic chemistry, J. Phys. Chem, vol.95, pp.4601-4610, 1991. ,
The nature of the hydrogen bond: outline of a comprehensive hydrogen bond theory, 1. ed in paperback, 2013. ,
, Patterns in Hydrogen Bonding: Functionality and Graph Set Analysis in Crystals », vol.34, pp.1555-1573, 1995.
, Thèse de doctorat de l'Université Henri Poincaré, 2006.
« Graph-set analysis of hydrogen-bond patterns in organic crystals, Acta Crystallogr B Struct Sci, vol.46, issue.2, pp.256-262, 1990. ,
Exploring and Exploiting Polar? Interactions with Fluorinated Aromatic Amino Acids », Acc. Chem. Res, vol.46, p.907, 2013. ,
Single-crystal structure validation with the program PLATON, J. Appl. Crystallogr, vol.36, issue.1, pp.7-13, 2003. ,
« Conformational Preferences of -Stacking Between Ligand and Protein, Analysis Derived from Crystal Structure Data Geometric Preference of -Interaction », Interdiscip Sci Comput Life Sci, vol.7, issue.3, pp.211-220, 2015. ,
(phenyl) interactions Theoretical and crystallographic observations, Faraday Trans, vol.93, p.98, 1997. ,
Composés de coordination mononucléaires obtenus par synthèse hydrothermale : Etude cristallochimique des systèmes, p.4 ,
« Bonded-atom fragments for describing molecular charge densities, Theoret. Chim. Acta, vol.44, issue.2, pp.129-138, 1977. ,
« Fingerprinting intermolecular interactions in molecular crystals, CrystEngComm, vol.4, pp.378-392, 2002. ,
, CrystEngComm, vol.11, issue.1, pp.19-32, 2009.
« Crystal structure, Hirshfeld surfaces and DFT computation of NLO active (2E)-2-(ethoxycarbonyl)-3-[(1-methoxy-1-oxo-3-phenylpropan-2-yl)amino] prop-2-enoic acid, Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy, vol.153, pp.625-636, 2016. ,
« Comparing entire crystal structures: structural genetic fingerprinting, CrystEngComm, vol.9, issue.8, p.648, 2007. ,
, Hirshfeld Surfaces Identify Inadequacies in Computations of Intermolecular Interactions in Crystals: Pentamorphic 1,8-Dihydroxyanthraquinone », vol.8, pp.4517-4525, 2008.
« Novel tools for visualizing and exploring intermolecular interactions in molecular crystals, Acta Crystallogr B Struct Sci, vol.60, issue.6, pp.627-668, 2004. ,
« Hydrothermal decarboxylation of amino acid derived imidazolium zwitterions: a sustainable approach towards ionic liquids, Green Chem, vol.16, issue.8, p.3705, 2014. ,
Structure, and Photoelectronic Effects of a Uranium?Zinc?Organic Coordination Polymer Containing Infinite Metal Oxide Sheets, J. Am. Chem. Soc, vol.125, pp.9266-9267, 2003. ,
« A series of lanthanide complexes based on pyridine-3,5-dicarboxylate and succinate ligands: syntheses, structures and properties, CrystEngComm, vol.16, p.6797, 2014. ,
« Decarboxylation of 5-substituted 2-pyridinecarboxylic acids, J. Org. Chem, vol.37, pp.3938-3940, 1972. ,
« Decarboxylation of some 2-substituted pyridinecarboxylic acids, J. Org. Chem, vol.37, p.128, 1972. ,
« Hydrothermal synthesis and characterization of {[Ni2(NA)4( -H2O)]·2H2O}n (HNA=nicotinic acid) and its heterogeneous catalytic effect, Polyhedron, vol.88, pp.164-169, 2015. ,
« One Pot hydrothermal synthesis of 1D copper (II) coordination polymers involving in-situ decarboxylation, Solid State Sci, vol.96, p.105958, 2019. ,
Synthesis and structural characterization of three copper coordination polymers with pyridine derivatives from hydro(solvo)thermal in situ decarboxylation reactions of 2,5-dicarboxylpyridine », J. Solid State Chem, vol.183, issue.7, pp.1561-1566, 2010. ,
Experimental and DFT Computational Comparison of Decarboxylation of Dicarboxylic Acids Connected by Single, Double, and Triple Bonds », « Spectroscopy of Hydrothermal Reactions, vol.20, pp.9491-9498, 2002. ,
« Further evidence as to the nature of the transition state leading to decarboxylation of 2-pyridinecarboxylic acids. Electrical effects in the transition state, J. Org. Chem, vol.36, issue.3, p.129, 1971. ,
Polymères de coordination mononucléaires obtenus par méthode de diffusion lente en milieu gel : Etude cristallochimique des systèmes Cu(3,5-pdc)(H2O)2 et, p.2 ,
« Polymorphs from supramolecular gels: four crystal forms of the same silver(i) supergelator crystallized directly from its gels, Chem. Commun, vol.47, p.5154, 2011. ,
, Lanthanide-Based Molecular Materials: Gel Medium Induced Polymorphism, vol.3, pp.1015-1020, 2003.
URL : https://hal.archives-ouvertes.fr/hal-00192844
, Rigaku Oxford Diffraction, CrysAlis PRO. Oxford Diffraction LtD, 2015.
, Acta Cryst, vol.64, pp.112-122, 2008.
« OLEX2: a complete structure solution, refinement and analysis program », J Appl Crystallogr, vol.42, issue.2, pp.339-341, 2009. ,
« Mercury CSD 2.0 -New Features for the Visualization and Investigation of Crystal Structures, J. Appl. Cryst, vol.41, pp.466-470, 2008. ,
, , 2004.
Ultra 9.0. CambridgeSoft, 100 CambridgePark Drive, Cambridge, MA 02140. www. cambridgesoft.com. See Web site for pricing options. », Journal of the American Chemical Society, vol.127, issue.11, pp.4115-4116, 2005. ,
« Crystal engineering of a three-dimensional coordination polymer based on both covalent and O-H O hydrogen bonding interactions of bifunctional ligands, CrystEngComm, vol.3, pp.111-113, 2001. ,
« Syntheses and characterization of Co(pydc)(H2O)2 and Ni(pydc)(H2O) (pydc3,5-pyridinedicarboxylate), Solid State Sciences, vol.3, issue.8, pp.829-835, 2001. ,
Synthesis and Structure of a Two-Dimensional Metal-Organic Framework, vol.790, pp.33-36, 2013. ,
, C7H7NO6Zn », Zeitschrift für Kristallographie -New Crystal Structures, vol.233, pp.31-32, 2018.
« Synthesis, structure, and spectroscopic properties of copper( II ) compounds containing nitrogensulphur donor ligands; the crystal and molecular structure of aqua, vol.1, pp.7-154 ,
, methylbenzimidazol-2 -yl)-2,6-dithiaheptane]copper( II ) perchlorate », J. Chem. Soc, issue.7, pp.1349-1356, 1984.
« Mixed ligand Cu(II) complexes: Square pyramidal vs trigonal bipyramidal with the pyrrole-based dipodal ligand having hydrogen bond acceptors, J. Mol. Struct, vol.1195, pp.1-9, 2019. ,
, Recent Trends in Materials Science and Applications, vol.189, 2017.
, Assessing the Conformational Equilibrium of Carboxylic Acid via QM and MD Studies on Acetic Acid, 2018.
« Investigations of the Copper Bromide?2,2'-Dipyridyl System: Hydrothermal Synthesis and Structural Characterization of Molecular Cu3Br4(C10H8N2)2, One-Dimensional CuBr2(C10H8N2), and Two-Dimensional, Inorg. Chem, vol.38, issue.6, pp.1288-1292, 1999. ,
« Influence of Water Content on the Self-Assembly of Metal?Organic Frameworks Based on Pyridine-3,5-dicarboxylate », Inorg. Chem, vol.45, issue.6, pp.2430-2437, 2006. ,
-4-hydroxypyridine-2,6-dicarboxylato)bis(4-hydroxypyridine-2,6-dicarboxylato)tetramanganese(II) 3.34-hydrate: a new three-dimensional open metalorganic framework based on a tetranuclear Mn II complex of chelidamic acid and undecameric stitching water clusters, Acta Crystallogr C. Crystal Structure Communications, vol.68, issue.3, pp.7-11, 2012. ,
« A Comparison of the Self Assembled Frameworks of Three Cobalt(II) Coordination Compounds Bearing Dipicolinic Acid and Chelidamic Acid Ligands », J. Chem. Crystallogr, vol.43, issue.10, pp.509-516, 2013. ,
, J. Coord. Chem, vol.60, issue.13, pp.1381-1386, 2007.
« Gel Growth and Preliminary Characterization of Strontium Tartrate Trihydrate, Cryst. Growth Des, vol.4, issue.2, pp.343-349, 2004. ,
Crystal Structure and Luminescent Properties of One Coordination Polymer of Copper(II) Achieved from Pyridine-3,5-dicarboxylate », J. Chem. Crystallogr, vol.40, issue.4, p.155, 2010. ,
Polymères de coordination hétéronucléaires obtenus par méthode de diffusion lente en milieu gel : Etude cristallochimique des systèmes mixtes 4f-3d [SmCu(3,5-pdc)2(Oxa)0.5(H2O)8]2H2O, vol.6, pp.5-7 ,
, O3-Sm1-O1, vol.83
, ) O1-Sm1-O2 ii, vol.87
, O3-Sm1-O7 i, vol.88
, O7w-Sm1-O8 i, vol.74
, ) O1-Sm1-O7 i, vol.137
) O9w-Sm1-O8 i, vol.68 ,
, ) O9w-Sm1-O7w, O7w-Sm1-O8w, vol.68
, O7w-Sm1-O7 i, vol.125
, ) O9w-Sm1-O2 ii, vol.97
, , vol.70, p.31
, ) O9w-Sm1-O7 i, O10w-Sm1-O8w, vol.132
, Codes de symétrie: (i) x+1, y+1, z; (ii) ?x+1, ?y+2, ?z+1
, Angles de liaison (º) du composé Ic avec leur déviation standard O3w-Cu1-O6w, vol.91
, O3w-Cu1-N1, vol.88, p.79
, O3w, vol.176, issue.4
, ) O6w-Cu1-N2, O4w-Cu1-N1 91, vol.92
, Sm1-O2 ii, vol.2, p.515
, Sm1-O1, vol.2, p.422
, , vol.2, p.453
, Sm1-O7w, vol.2, p.447
, Codes de symétrie: (i) x+1, y+1, z; (ii) ?x+1, ?y+2, ?z+1
, Distances interatomiques (Å) autour du Co 2+ dans le composé (If) Co1-O5w, vol.2, p.83
, Co1-O6w, vol.2, p.142
, Co1-O3w, vol.2, p.148
, L'ion Co 2+ présente une géométrie octaédrique similaire à celle du Cu 2+ mais moins déformée
, Il est coordiné par deux atomes d'azote (N1, N2) de deux ligands 3,5-pdc 2-cristallographiquement indépendants et par quatre atomes d'oxygène (O3w, O4w, vol.5, p.165
, des molécules d'eau, une géométrie souvent observée pour l'ion Co 2+ avec le, vol.3, p.5
, Les distances Co-O sont comprises entre 2,0639 (1) et 2,1295 (1) Å (moyenne de, vol.2, p.9
, avec une dispersion étroite par rapport à la structure du composé (If)
, Les distances Co1-N1 et Co1-N2 sont respectivement de 2,1423 (1) et 2,1483 (1) Å. Ces distances sont comparables à celles rapportées pour les composés de cobalt avec le ligand, vol.3, p.5
, ° et, vol.86, issue.6
, Angles de liaison sélectionnés (º) autour du Sm avec leur déviation standard pour le composé (If) O3-Sm1-O9 i, vol.137
, O3-Sm1-O1 86,05 (5) O7w-Sm1-O10 i, vol.124, p.97
, O3-Sm1-O10 i, vol.86
, ) O7w-Sm1-O2 ii, vol.141, p.33
, O3-Sm1-O10w, vol.73, p.26
, ) O10w-Sm1-O10 i, vol.134
, ) O10w-Sm1-O2 ii, vol.86
, O2 ii -Sm1-O10 i 97, vol.70
, ) O9w-Sm1-O9 i, O9 i -Sm1-O10 i, vol.51, p.95
, ) O9w-Sm1-O10 i, vol.129, p.41
, O9 i -Sm1-O2 ii, vol.67, p.71
, O1-Sm1-O9 i, vol.132, p.31
, ) O9w-Sm1-O2 ii, vol.145, p.92
, O1-Sm1-O7w, vol.77, p.35
, O8w-Sm1-O9 i 96, O1-Sm1-O10w, vol.71
, ) O8w-Sm1-O10 i, vol.65, p.89
, O1-Sm1-O9w, vol.139, p.71
, O1-Sm1-O8w, vol.78, p.68
, Codes de symétrie: (i) x+1, y+1, z; (ii) ?x+1, ?y+2, ?z+1
, , vol.2, p.385
, , vol.2, p.421
, Dy1-O1, vol.2, p.540
, Codes de symétrie: (i) ?x, ?y, ?z+2; (ii) ?x+1, ?y, ?z+2; (iii) ?x, ?y, ?z+1
, Distances interatomiques (Å) autour du Ni 2+ Ni1-N1, vol.2, p.982
, Ni1-O4w i, vol.2, p.973
, Ni1-O3w, vol.1, issue.7, p.973
, Code de Symétrie: (i) x, ?y+1/2, z
, ) Å (distance moyenne de, Les distances Dy-O comprises entre, vol.2, p.540
, Angles de liaison sélectionnés (º) avec leur déviation standard du MOFs O4 i -Dy1-O6 ii, vol.69, p.0
, O4 i -Dy1-O1, vol.68, p.49
, O4 i -Dy1-O2, vol.86
, ) O3-Dy1-O4 i, O6 ii -Dy1-O1, vol.112, p.2
, ) O3-Dy1-O6 ii, vol.135
, O7-Dy1-O6 ii, vol.139, pp.3-4
, O7-Dy1-O8 iii, vol.67
, O7-Dy1-O1, vol.68
, ) O2-Dy1-O1, O8 iii -Dy1-O4 i, vol.130, p.41
, ) O1w-Dy1-O4 i, O8 iii -Dy1-O6 ii, vol.125
, O8 iii -Dy1-O1, vol.121
, O8 iii -Dy1-O2, vol.140
, O5-Dy1-O4 i, vol.76, p.91
, ) O1w-Dy1-O1, O5-Dy1-O6 ii, vol.67
, ) O1w-Dy1-O5, vol.137
, ) O1w-Dy1-O3, vol.49
, O2-Dy1-O6 ii, vol.74, p.9
, Codes de Symétrie: (i) ?x, ?y, ?z+2; (ii) ?x+1, ?y, ?z+2; (iii) ?x, ?y, ?z+1
, O3w, O3w i , O4w, O4w i ) provenant des molécules d'eau et un atome d'azote (N1) du ligand 3,5-pdc 2-. Les quatre atomes d'oxygène (O3w, O3w i , O4w, O4w i ) des molécules d'eau et les deux atomes (O2w, N1) en position spéciale (plan miroir) sont respectivement à des distances de, L'ion Ni 2+ est quant à lui situé sur un plan miroir et il est hexacoordiné par cinq atomes d'oxygène (O2w, vol.1, p.81
Cyra ski, « First experimental charge density study using a Bruker CMOS-type PHOTON 100 detector: the case of ammonium tetraoxalate dihydrate, Acta Crystallogr B Struct Sci Cryst Eng Mater, vol.70, issue.5, pp.847-855, 2014. ,
Ag coordination polymer constructed from pyridine-3,5-dicarboxylic acid: Synthesis, crystal structure and magnetic properties, Inorg Chem Commun, vol.12, issue.9, pp.895-897, 2009. ,
III)?Cobalt(II) Heterometallic Coordination Polymers with Radical Adsorption Properties », Inorg. Chem, vol.46, pp.5832-5834, 2007. ,
, CCDC 622069: Experimental Crystal Structure Determination ». Cambridge Crystallographic Data Centre, 2008.
« A novel three dimensional 3d-4f heterometallic coordination framework with 2, 2 -bipyridine-3-carboxylate and oxalate ligands, Inorg Chem Commun, vol.13, issue.8, pp.924-928, 2010. ,
Crystal Structure and Luminescent Properties of One Coordination Polymer of Copper(II) Achieved from Pyridine-3,5-dicarboxylate », J. Chem. Crystallogr, vol.40, issue.4, pp.332-336, 2010. ,
, Experimental Crystal Structure Determination ». Cambridge Crystallographic Data Centre, vol.633052, 2014.
« Syntheses, structures and photophysical properties of Zn-Ln coordination polymers, Polyhedron, vol.98, pp.154-161, 2015. ,
« Water aggregate: Combination of octameric water cube and (H2O)20 cluster within 3d-4f heterometallic metal-organic coordination networks, Inorg Chem Commun, vol.11, issue.3, pp.314-317, 2008. ,
« Template-assisted self-assembly: Synthesis, structures, and magnetic properties of lanthanide(III)-cobalt(II) coordination complexes constructed with deprotonated 3,5-pyridinedicarboxylic acid ligand, Inorg Chem Commun, vol.13, issue.10, pp.1178-1183, 2010. ,
,
, Influence of Water Content on the Self-Assembly of 195
, Metal?Organic Frameworks Based on Pyridine-3,5-dicarboxylate, Inorg Chem, vol.45, issue.6, pp.2430-2437, 2006.
« 2D-1D structural phase transformation of Co(ii) 3,5-pyridinedicarboxylate frameworks with chromotropism, Dalton Transactions, vol.41, p.10698, 2012. ,
II)-lanthanide(III) coordination polymers constructed from pyridine-2,5-dicarboxylic acid: Preparation, crystal structure and photoluminescence, J. Solid State Chem, vol.197, pp.489-498, 2013. ,
« A series of three-dimensional 3d-4f heterometallic coordination frameworks based on pyridinedicarboxylic acid ,
, , vol.21, pp.923-929, 2010.
« Solvent extraction behavior of rare earth ions with 1-phenyl-3-methyl-4-benzoyl-5-pyrazolone-II, J. Inorg Nucl Chem, vol.40, issue.2, pp.331-334, 1978. ,
Tetrad and Double-double Effects were here, Helv. Chim. Acta, vol.58, issue.7, 1975. ,
« Design and construction of lanthanide metal-organic frameworks through mixed-ligand strategy: Sensing property of acetone and Cu 2+ », Inorganica Chimica Acta, vol.469, pp.51-56, 2018. ,
Oxalate Coordination Polymers Formed by Reductive Coupling of Carbon Dioxide to Oxalate, Bulletin of the Korean Chemical Society, vol.27, issue.11, pp.1839-1843, 2006. ,
« Hydration of Lanthanoid(III) Ions in Aqueous Solution and Crystalline Hydrates Studied by EXAFS Spectroscopy and Crystallography: The Myth of the "Gadolinium Break" », Chem. Eur. J, vol.14, issue.10, pp.3056-3066, 2008. ,
, Carbonates of the Lanthanides -Breaking the Gadolinium Break: Azobis[tetrazolide]-Carbonates of the Lanthanides -Breaking the Gadolinium Break, vol.2018, p.196, 2018.
, Recent Trends in Materials Science and Applications, vol.189, 2017.
, Assessing the Conformational Equilibrium of Carboxylic Acid via QM and MD Studies on Acetic Acid, 2018.
« From Molecules to Crystal Engineering: Supramolecular Isomerism and Polymorphism in Network Solids », Chem. Rev, vol.101, issue.6, pp.1629-1658, 2001. ,
« Packing polymorphism of a two-dimensional copper(i) 3-amino-1,2,4-triazolate coordination polymer, CrystEngComm, vol.13, issue.11, p.3827, 2011. ,
« The Silica-Like Extended Polymorphism of Cobalt(II) Imidazolate Three-Dimensional Frameworks: X-ray Single-Crystal Structures and Magnetic Properties, Chem. Eur. J, vol.9, pp.5673-5685, 2003. ,
, Supramolecular isomerism in coordination polymers, vol.38, p.2385, 2009.
, Lanthanide-Based Molecular Materials: Gel Medium Induced Polymorphism, vol.3, pp.1015-1020, 2003.
URL : https://hal.archives-ouvertes.fr/hal-00192844
« The Coordination Chemistry of Yttrium and the Rare Earth Metal Ions », Chem. Rev, vol.65, issue.1, pp.1-50, 1965. ,
« Luminescent pillared LnIII-ZnII heterometallic coordination frameworks with two kinds of N-heterocyclic carboxylate ligands, J. Solid State Chem, vol.212, pp.58-63, 2014. ,
« Two dimensional porous 3d-4f heterometallic coordination polymers constructed by pyridine-2,3-dicarboxylic acid, CrystEngComm, vol.17, pp.3852-3858, 2015. ,
« A Series of Copper-Lanthanide Heterometallic Coordination Polymers Derived from Pyridine-2,3-dicarboxylic Acid and in situ Generated Succinic Acid », Eur. J. Inorg. Chem, vol.2016, issue.7, pp.1060-1067, 2016. ,
« Re-investigation of the Er3+-C2O42--H2O system: from the classical 197 ceramic precursor to a new nanoporous molecular material potential precursor, Comptes Rendus Chimie, vol.6, issue.3, pp.405-415, 2003. ,
, « A Series of Lanthanide?Organic Frameworks Based on 2-Propyl-1H-imidazole-4,5-dicarboxylate and Oxalate: Syntheses, Structures, Luminescence, and Magnetic Properties, vol.10, pp.1399-1408, 2010.
« MIL-103, A 3-D Lanthanide-Based Metal Organic Framework with Large One-Dimensional Tunnels and A High Surface Area, J. Am. Chem. Soc, vol.127, pp.12788-12789, 2005. ,
, Représentation Mercury de l'unité asymétrique du composé (II), les ellipsoïdes thermiques sont représentés à 50% de probabilité
, Distances interatomiques (Å) et angles (º) avec leur déviation standard Co1-O1 i, vol.2, p.44
, Co1-N1 ii, vol.2, p.203
, Co1-O1W, vol.2, p.44
, ) O1W-Co1-O1 i 96, O1 i -Co1-O1, vol.84
, ) O1W i -Co1-O1 i, O1-Co1-N1 ii, vol.137, p.41
, ) O1W-Co1-O1W i, O1 i -Co1-N1 ii, vol.137
, O1W i -Co1-O1 96, vol.23
, ) O1W i -Co1-N1 ii, O1W-Co1-O1, vol.89
, Distances interatomiques (Å) autour du Pr 3+ dans le composé (Ia) Pr1-O1, vol.2, p.4869
, , vol.2, p.5337
, Codes de symétrie: (i) x+1, y+1, z; (ii) ?x+1, ?y+2, ?z+1
, Distances interatomiques (Å) autour du Cu 2+ dans le composé (Ia) Cu1-O5w 1,9754 (5) Cu1-O3w, vol.2, p.4910
, Cu1-O6w, vol.1, issue.5, p.228
, Cu1-O4w, vol.2, p.226
, ) O8 i -Pr1-O7 i, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ia) O1-Pr1-O8 i, vol.132
, ) O2 ii -Pr1-O8 i, O1-Pr1-O8w, vol.76
, ) O2 ii -Pr1-O10w, O1-Pr1-O2 ii, vol.65
, ) O2 ii -Pr1-O7 i, O1-Pr1-O7w, vol.77
, O1-Pr1-O9w, vol.140
, O1-Pr1-O10w, vol.71
, O1-Pr1-O7 i, vol.144
, O3-Pr1-O1, vol.83, p.661
, O3-Pr1-O8 i, vol.139, p.911
, ) O9W-Pr1-O8 i, O3-Pr1-O8w, vol.69
, O3-Pr1-O2 ii, vol.133
, ) O9W-Pr1-O2 ii, vol.139
, O3-Pr1-O9w, vol.89
, O3-Pr1-O10w, vol.71
, O3-Pr1-O7 i, vol.90
, Codes de symétrie: (i) x+1, y+1, z; (ii) ?x+1, ?y+2, ?z+1
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ia) O3w-Cu1-O4w, vol.176
, O3w-Cu1-N2, vol.86
, O6w, vol.176, issue.2
, O4w, vol.87, issue.2, pp.1-1
, ) O3w-Cu1-O5w, O5w-Cu1-N2, vol.89
, O5w-Cu1-N1 91, vol.97, p.6
, O4w, vol.89, issue.2
, Distances et angles caractérisant les liaisons hydrogène au sein du composé
,
, O2w iv -H2wB···O7 0, vol.903, p.1
, Distances interatomiques (Å) autour du Nd 3+ dans le composé (Ib) Nd1-O3 2,3825 (5) Nd1-O9 i, vol.2, p.5941
, Nd1-O5w, vol.2, p.5392
, Nd1-O1, vol.2, p.4621
, Nd1-O6w, vol.2, p.4865
, Nd1-O2, vol.2, issue.5, p.4231
, Code de symétrie: (i) x?1, y?1, z
, Distances interatomiques (Å) autour du Cu 2+ dans le composé (Ib) Cu1-O4w, vol.1, p.261
, Cu1-N1, vol.2, p.2719
, Cu1-O3w, vol.1, issue.5, p.4921
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ib) O3-Nd1-O5w, vol.139
, O3-Nd1-O1, vol.133, pp.2-3
, ) O2-Nd1-O6w, O3-Nd1-O6w, vol.72
, ) O2-Nd1-O9 i, O3-Nd1-O2, vol.83
, O3-Nd1-O9 i, vol.89
, ) O2-Nd1-O7w, O3-Nd1-O10, vol.139
, ) O2-Nd1-O8w, vol.88, p.9
, ) O10-Nd1-O9 i, vol.69
, ) O7w-Nd1-O5w, O5w-Nd1-O1, vol.67
, ) O7w-Nd1-O1, O5w-Nd1-O6w, vol.68, p.5
, ) O7w-Nd1-O6w, O5w-Nd1-O9 i, vol.125
, ) O7w-Nd1-O9 i, vol.161
, O5w-Nd1-O8w, vol.137
, ) O7w-Nd1-O8w, O1-Nd1-O6w, vol.123
, O1-Nd1-O9 i 95, vol.847, p.41
, ) O8w-Nd1-O6w, O1-Nd1-O10, vol.68
, ) O8w-Nd1-O9 i, O6w-Nd1-O9 i, vol.138
, O6W-Nd1-O10, vol.129
, Code de symétrie: (i) x?1, y?1, z
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ib) O1w-Cu1-O2w, vol.176
, O3w, vol.92, issue.2, p.99
, ) O3w-Cu1-N2, O1w-Cu1-O4w, vol.91, p.0
, ) O3w-Cu1-O2w, O4w-Cu1-N1, vol.88, p.91
) O1w-Cu1-N1, O2w, vol.89, issue.3 ,
, N1-Cu1-N2, vol.177
, N1-Cu1-O2w, vol.92
, Représentation Mercury de l'unité asymétrique du Composé (Ib), les ellipsoïdes thermiques sont représentés à 50% de probabilité
, Distances interatomiques (Å) autour du Nd 3+ dans le composé (Id) Eu1-O3, vol.2, p.544
, Eu1-O1, vol.2, p.545
, Eu1-O9w, vol.2, issue.6, p.493
, Code de symétrie: (i) ?x+2, ?y+1, ?z+2
, Distances interatomiques (Å) autour du Cu 2+ dans le composé (Id) Cu1-O3w, vol.1, p.30
, Cu1-O4w, vol.1, issue.5, p.265
, Cu1-N2, vol.2, p.475
) O9w-Eu1-O2 i, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Id) O3-Eu1-O1, vol.83 ,
, O3-Eu1-O2 i, vol.133, pp.9-10
, O3-Eu1-O9, vol.89
, O9w, vol.139, issue.1, p.6
, O3-Eu1-O7w, vol.72, p.39
, O3-Eu1-O8w, vol.89
, O3-Eu1-O10w, vol.69
, ) O8w-Eu1-O2 i, O1-Eu1-O2 i, vol.65
, O1-Eu1-O9w, vol.76
, O1-Eu1-O7w, vol.71
, O1-Eu1-O8w, vol.140
, ) O10w-Eu1-O2 i, O1-Eu1-O10w, vol.77
, O2 i -Eu1-O9, vol.95
, O2 i -Eu1-O10, vol.68
, O2 i -Eu1-O7w, vol.123
, Code de symétrie: (i) ?x+2, ?y+1, ?z+2
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Id) O3w-Cu1-N2, vol.90
, ) O4w-Cu1-O5w, O3w-Cu1-N1, vol.88
, O5w, vol.88, issue.2, p.24
, O3w, vol.176, issue.8
, O4w-Cu1-N2, vol.89
, ) O3w-Cu1-O6w, O6w-Cu1-N2, vol.86, p.9
, ) O4w-Cu1-O6w, vol.58
, O5w, vol.176, issue.2, p.9
, Distances interatomiques (Å) autour du Gd 3+ dans le composé (Ie) Gd1-O1, vol.2, p.4226
, , vol.2, p.4336
, Gd1-O3, vol.2, p.4075
, , vol.2, p.4889
, Code de symétrie: (i) ?x+1, ?y, ?z+1
, Distances interatomiques (Å) autour du Cu 2+ dans le composé (Ie) Cu1-O4w, vol.1, p.243
, Cu1-O3w, vol.1, issue.2, p.218
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ie) O1-Gd1-O2 i 67,05 (5) O8 ii -Gd1-O7w, vol.129, p.7
) O8w-Gd1-O2 i, vol.145, p.1 ,
, ) O8w-Gd1-O7 ii, vol.133, p.53
, O8w, vol.78, issue.6, p.96
, O7w, vol.71, issue.6, p.53
, O1-Gd1-O10w, vol.77, p.25
, ) O7w-Gd1-O7 ii, vol.139, p.33
, O2 i -Gd1-O7 ii, vol.96, p.10
, O2 i -Gd1-O8 ii, vol.67, p.29
, ) O10w-Gd1-O7 ii, vol.124, p.96
, O3-Gd1-O1, vol.83, p.79
) O9w-Gd1-O2 i, vol.134, p.32 ,
, , vol.88
, , vol.138, p.14
, O3-Gd1-O8w, vol.140, p.23
, O7w, vol.72, issue.6, p.20
, O10w, vol.70, issue.7, p.10
, O9w, vol.86, issue.7, p.94
, Code de symétrie: (i) ?x+1, ?y, ?z+1
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ie) O4w-Cu1-O3w, vol.175, p.89
, O5w, vol.86, issue.8, p.41
, O4w-Cu1-N1 91,96 (7) N1-Cu1-O5w, vol.92, p.39
, O5w, vol.89, issue.8, p.50
, O6w-Cu1-N2, vol.87, p.42
, ) O4w-Cu1-O6w, vol.54, p.25
, Représentation Mercury de l'unité asymétrique du Composé (Ie), les ellipsoïdes thermiques sont représentés à 50% de probabilité
, Distances interatomiques (Å) autour du Eu 3+ dans le composé (Ig) Eu1-O3, vol.2, p.497
, Eu1-O2 ii, vol.2, p.507
, Eu1-O8w, vol.2, p.509
, Eu1-O10 i, vol.2, p.565
, Distances interatomiques (Å) autour du Co 2+ dans le composé (Ig) Co1-O5w, vol.2, p.134
, Co1-O4w, vol.2, p.139
, Co1-O6w, vol.2, p.145
Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ig) O3-Eu1-O1, O7w-Eu1-O2 ii, vol.85 ,
, O3-Eu1-O8w, vol.86, p.5
, O9 i -Eu1-O2 ii, vol.138, p.74
, O3-Eu1-O7w, vol.141, p.92
, O1-Eu1-O7w, vol.77
, O8W-Eu1-O7w, vol.83
, O3-Eu1-O10w, vol.70, p.91
, O1-Eu1-O10w, vol.78, p.2
, O10w, vol.135, issue.9, p.48
, O2 ii -Eu1-O9w, vol.137, p.41
, ) O3-Eu1-O10 i, vol.137, p.50
, ) O1-Eu1-O10 i, O1-Eu1-O9 i, vol.132, p.7
, , vol.75
) O7w-Eu1-O10 i, vol.74 ,
, ) O10w-Eu1-O10 i, O10w-Eu1-O9 i 96, vol.50
, O9 i -Eu1-O10 i, vol.135, p.52
, ) O2 ii -Eu1-O10 i 97, vol.66, p.22
O9w-Eu1-O10 i, vol.138, p.45 ,
, Code de symétrie: (i) x?1, y?1, z; (ii) ?x+1, ?y, ?z+1
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ig) O5w-Co1-O4w, vol.86, pp.6-7
, ) O3w-Co1-N2, O5w-Co1-O6w, vol.173
, O6w, vol.87, issue.1
, O5w-Co1-O3w, vol.94, p.8
, ) O6w-Co1-N1, O4w-Co1-O3w, vol.178
, O6w-Co1-O3w, vol.91
, O5w-Co1-N2, vol.88, p.7
, N2, vol.89, issue.1
, Représentation Mercury de l'unité asymétrique du Composé (Ig), les ellipsoïdes thermiques sont représentés à 50% de probabilité
, Distances interatomiques (Å) autour du Gd 3+ dans le composé (Ih) Gd1-O10 i, vol.2, p.3963
, Gd1-O2 ii, vol.2, p.4935
, Gd1-O7w, vol.2, p.429
, Gd1-O1, vol.2, p.3791
, Code de symétrie: (i) x?1, y?1, z; (ii) ?x+1, ?y, ?z+1
, Distances interatomiques (Å) autour du Co 2+ dans le composé (Ih) Co1-O5w, vol.2, p.845
, Co1-O4w, vol.2, p.144
, Co1-O3w, vol.2, p.141
Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ih) O9 i -Gd1-O10 i, vol.51, p.12 ,
, ) O8w-Gd1-O9 i, O9 i -Gd1-O2 ii, vol.67
, , vol.69, p.9
, , vol.137
) O8w-Gd1-O2 ii, vol.129, p.35 ,
, , vol.123, p.71
, ) O3-Gd1-O10 i, vol.78, p.26
) O3-Gd1-O9 i, vol.125, p.4 ,
, , vol.74, p.98
, O9w, vol.68, issue.6, p.83
, , vol.68, p.90
, O10w, vol.137, issue.7, p.77
, O1-Gd1-O10 i, vol.145, p.91
, O1-Gd1-O9 i, vol.132, p.27
, ) O2 ii -Gd1-O10 i 97, vol.71, p.22
, ) O10w-Gd1-O10 i, vol.78
) O10w-Gd1-O9 i 96, O8w, vol.139, issue.7, p.54 ,
, , vol.66, p.9
, Code de symétrie: (i) x?1, y?1, z; (ii) ?x+1, ?y, ?z+1
, Angles de liaison sélectionnés (º) avec leur déviation standard du composé (Ih) O5w-Co1-N1, vol.90, p.33
, O5w-Co1-N2, vol.89, p.50
, O4w-Co1-O5w, vol.91, p.73
, O4w-Co1-N1, vol.88, p.67
, O3w-Co1-O5w, vol.94, p.60
, O3w-Co1-O4w, vol.173, p.15
, O6w, vol.86, issue.8, p.30
, Coordonnées atomiques et paramètres d'agitation thermique isotropiques équivalents (Å 2 ) du Composé
, O4w, vol.0, issue.9
, Au cours de cette thèse doctorale en cotutelle entre l'Université Assane Seck de Ziguinchor (Sénégal) et l'Université de Lorraine (France), il a été possible de mettre en évidence plusieurs nouvelles phases cristallines inédites de matériaux moléculaires, Résumé Il est désormais possible, en utilisant la méthode de synthèse par diffusion lente en milieu gel, d'élaborer de nouveaux matériaux moléculaires mixtes 4f-3d tridimensionnels présentant des propriétés physiques et chimiques très intéressantes
A simple, economic, ecologic and environmentally friendly synthesis method that has been used until recently for the growth of mononuclear crystalline molecular materials. During this international joint PhD between Assane Seck Ziguinchor University (Senegal) and Lorraine University (France), it was possible to synthesize several novel crystalline phases of molecular materials. Ten new 4f-3d heteronuclear molecular materials was obtained by slow diffusion in gel medium and structurally characterized by single crystal X-ray diffraction. Eight of them belong to the same family of isostructural compounds, Mots clés : Milieu gel, Matériaux moléculaires, Systèmes mixtes 4f-3d, Lanthanides, Diffraction des rayons-X Abstract New tridimensional 4f-3d molecular materials can be obtained through crystal growth in gel medium ,
, Key words: Gel medium, Molecular materials, Mixed systems 4f-3d
, Journal de la Société Ouest-Africaine de Chimie J. Soc. Ouest-Afr. Chim, vol.046, pp.59-67, 2018.
, ème Année, Décembre, 2018.
, Code Chemical Abstracts, p.2
) O10-Nd1-O9 i 50, <27680> Site Web, vol.94 ,
, ) O5W-Nd1-O9 i 125, O3-Nd1-O9 i 89, vol.698, pp.5-6
, ) O6W-Nd1-O9 i 138, O1-Nd1-O9 i 95, vol.847, pp.2-3
, O2-Nd1-O9 i 144, vol.52, pp.2-3
Emerging applications of metal-organic frameworks, CrystEngComm, vol.18, issue.35, p.42, 2016. ,
Syntheses, structures and photoluminescence of Ln(III)-Cu(I) coordination polymers based on benzimidazole-5-carboxylate and oxalate ligands, InorgChem Commun, vol.599, issue.5, p.602, 2010. ,
Molecular heterometallic hydride clusters composed of rare-earth and d-transition metals, Nat Chem, vol.814, issue.10, p.20, 2011. ,
, Gd, Tb) Combinations: Syntheses, Structures, Magnetism, and Photoluminescence Properties, vol.2, p.26, 2015.
,
Ag coordination polymer constructed from pyridine-3,5-dicarboxylic acid: Synthesis, crystal structure and magnetic properties, InorgChemCommun, vol.12, issue.9, p.7, 2009. ,
3D pillar-layered 4d-4f heterometallic coordination polymers based on pyridine-3,5-dicaboxylate and oxalate mixed ligands, InorgChemCommun, vol.12, issue.4, p.20, 2009. ,
One-dimensional copper-pyridinedicarboxylate polymer containing square-planar Cu(II) centers exhibiting antiferromagnetic coupling, InorganicaChimActa, vol.324, issue.1, p.9, 2001. ,
Selfassembly of lanthanide( III ) coordination polymers from a bifunctional 2-(pyridin-2-yl)-1H-imidazole-4,5-dicarboxylate ligand with the assistance of oxalate: syntheses, structures, luminescence, and magnetic properties, CrystEngComm, issue.14, p.64, 1953. ,
A Series of Lanthanide?Organic Frameworks Based on 2-Propyl-1H-imidazole-4,5-dicarboxylate and Oxalate: Syntheses, Structures, Luminescence, and Magnetic Properties, Cryst Growth Des, vol.1399, issue.3, p.408, 2010. ,
Two fluorescent lead phosphonates for highly selective sensing of nitroaromatics (NACs), Fe 3+ and MnO4 ? ions, RSC Adv, vol.6, issue.111, p.65, 2016. ,
1,2,4,5-Benzene-tetra-carboxylic acid: a versatile ligand for high dimensional lanthanide-based coordination polymers, CrystEngComm, issue.10, p.1882, 2013. ,
URL : https://hal.archives-ouvertes.fr/hal-00806887
Lanthanide-Based Molecular Materials: Gel Medium Induced Polymorphism, Cryst Growth Des, vol.3, issue.6, p.20, 2003. ,
URL : https://hal.archives-ouvertes.fr/hal-00192844
, Crystals in gels and Liesegang rings: in vitro veritas, vol.197, 1988.
Crystallization Behavior of ,
, , p.67
, , pp.3-4
, Heterometallic Coordination Polymers: Syntheses, Crystal Structures, and Magnetic Properties of Six New Co(II)-Ln(III) Compounds. InorgChem, vol.6299, p.308, 2014.
, Rigaku Oxford Diffraction, CrysAlis PRO. Oxford Diffraction LtD, 2015.
, , 2008.
, , vol.59, p.75, 2015.
, J ApplCryst, vol.41, pp.466-470, 2008.
, Crystal Impact GbR, p.1999
A new 3-D microporous Ln(III)-Cu(I) framework constructed by pyridine-3,5-dicarboxylate, J Coord Chem, issue.14, pp.2290-2298, 2009. ,
III)?Cobalt(II) Heterometallic Coordination Polymers with Radical Adsorption Properties, Inorg Chem, vol.5832, issue.15, p.4, 2007. ,
CCDC 622069: Experimental Crystal Structure Determination, 2008. ,
A novel three dimensional 3d-4f heterometallic coordination framework with 2, 2?-bipyridine-3-carboxylate and oxalate ligands, Inorg Chem Commun, vol.924, issue.8, p.13, 2010. ,
Synthesis, Crystal Structure and Luminescent Properties of One Coordination Polymer of Copper(II) Achieved from Pyridine-3,5-dicarboxylate, J ChemCrystallogr, vol.332, issue.4, p.6, 2010. ,
, Experimental Crystal Structure Determination. Cambridge Crystallographic Data Centre, vol.633052, 2014.
Influence of Water Content on the Self-Assembly of Metal?Organic Frameworks Based on Pyridine-3,5-dicarboxylate, InorgChem, issue.6, p.45, 2006. ,
, Claude Lecomte Journal de la Société Ouest-Africaine de Chimie J. Soc. Ouest-Afr. Chim, vol.048, pp.26-33, 2019.
, Décembre, 2019.
, Code Chemical Abstracts, p.2
, <27680> Site Web
, , p.26
, Synthèse et caractérisation structurale d'un nouveau polymère de coordination à base du Dy(III) avec les ligands 2,5-pyridinedicarboxylate et oxalate
,
Matériaux Inorganiques : Chimie Douce et Cristallographie ,
, Résonance Magnétique et Modélisations, CRM2, UMR 7036
, 5-Pdc)(Oxa)0.5(H2O)2]n (avec 2,5-Pdc = 2,5-pyridinedicarboxylate et Oxa = oxalate) a été obtenu par voie hydrothermale et structuralement caractérisé par la diffraction des rayons-X sur monocristal à une température de 100K. Le composé présente une structure bidimensionnelle formé de chaînes en forme de zig-zag par les ligands 2,5-pyridinedicarboxylates, Ces chaînes sont ensuite reliées entre elles par les ligands oxalates pour donner les couches bidimensionnelles stabilisées par les interactions supramoléculaires
, Mots clés: Diffraction des rayons-X, Lanthanides, Polymères de coordination, Synthèse hydrothermale, vol.2, p.5
, Synthesis and structural characterization of a novel coordination polymer base on Dy(III) with pyridine-2,5-dicarboxylate and oxalate ligands
, 5-Pdc) and oxalic acid (H2Oxa) with DyCl3.6H2O under hydrothermal conditions gave a novel 2D coordination polymer, [Dy(2,5-Pdc) (single crystal X-ray diffraction. In this compound, pyridine-2,5-dicarboxylate ligands link Dy 3+ ions to give infinite zig-zag chains which are further bridged by bis-bidentate oxalate ligands to form 2D layers, Abstract : Direct reaction of pyridine-2,5-dicarboxylic acid, vol.22
, Keywords: X-ray diffraction, Lanthanides, Coordination polymers, Hydrothermal synthesis, 2,5 pyridinedicarboxylate
,
, , p.29
L'ion Dy 3+ est hexacoordiné par un atome d'azote (N1 ii ) provenant du ligand pyridinedicarboxylate, trois atomes d'oxygène (O1, O2 iii , O3 ii ) provenant du même ligand, deux atomes d'oxygène (O5, O6 i ) provenant de l'oxalate et enfin deux atomes d'oxygène (O1w, O2w) provenant des molécules d'eau de coordination. Le polyèdre de coordination peut être décrit comme un antiprisme carré distordu (Figure 2) à cause de la coordinance élevée et constituée par des oxygènes de ligands différents présentant plusieurs modes de coordination, ) Å alors que les contacts Dy-O sont compris entre 2.279 (7) et 2.406 (8) Å (Tableau II) et sont comparables à celles observées dans les structures des composés analogues rapportées dans la littérature. Les angles O-Dy-O, vol.2 ,
, Figure 1: Représentation de l'unité asymétrique, les ellipsoïdes thermiques sont représentés à 50% de probabilité
, Distances interatomiques (Å) autour du Dy 3+ Dy1-O5, vol.2, p.512
, Codes de symétrie: (i) -x, ?y+1, ?z+2; (ii) x?1, y+1, z; (iii) ?x+1, ?y+1, vol.2
Angles de liaison sélectionnés (º) avec leur déviation standard O5-Dy1-O6 i, ) O3 ii -Dy1-O1w, vol.67, p.43 ,
, ) O2w-Dy1-O6 i, vol.72
, ) O1-Dy1-O1w, O1-Dy1-O6 i, vol.79, p.0
, ) O2 iii -Dy1-O6 i, O1-Dy1-O3 ii, vol.86, p.47
O2 iii -Dy1-O3 ii 141,97 (3) O3 ii -Dy1-O5, vol.108, p.95 ,
, Codes de symétrie: (i) ?x, ?y+1, ) O3 i -Dy1-N1 i, vol.71
,
Syntheses and characterization of three lanthanide(III) complexes containing pyridine-3,5-dicarboxylic acid and oxalic acid ligands, Journal of Coordination Chemistry, issue.17, pp.2796-2803, 2009. ,
Novel (3,4)-and (4,5)-Connected Lanthanide Metal-Organic Frameworks, Eur J Inorg Chem, vol.1, pp.98-105, 2008. ,
A series of lanthanide complexes based on pyridine-3,5-dicarboxylate and succinate ligands: syntheses, structures and properties, CrystEngComm, vol.16, pp.6797-6802, 2014. ,
Heterometallic Cu II /Ln III polymers active in the catalytic aerobic oxidation of cycloalkenes under solvent-free conditions, Dalton Transactions, vol.47, pp.13360-13367, 2018. ,
Two series of novel 3D potentially porous heterometallic Cu-Ln coordination frameworks assembled by 3,4-pyridinedicarboxylic acid with different topologies and channels: syntheses, structures, luminescence and magnetic properties, vol.5, pp.15059-15068, 2015. ,
Recent progress in the synthesis of metal-organic frameworks, Science and Technology of Advanced Materials, p.54202, 2015. ,
Isostructural lanthanide metal-organic frameworks comprised of left-handed helical chains: Synthesis, structure and luminescent properties, Inorganic Chemistry Communications, vol.90, pp.69-72, 2018. ,
A Series of Three-Dimensional Lanthanide-Rigid-Flexible Frameworks: Synthesis, Structure, and Luminescent Properties of Coordination Polymers with 2,5-Pyridine Dicarboxylic Acid and Adipic Acid, Crystal Growth & Design, vol.9, issue.3, pp.1525-1530, 2009. ,
A series of three-dimensional 3d-4f heterometallic coordination frameworks based on pyridinedicarboxylic acid, Structural Chemistry, issue.5, pp.923-929, 2010. ,
Synthesis and X-ray crystal structures of a series of 3d-4f lanthanide complexes: lanthanide(III)-copper(II) coordination polymers with 2,5-pyridinedicarboxylic acid ligand, Transition Metal Chemistry, issue.6, pp.655-661, 2009. ,
,
, Acta Crystallographica Section E Structure Reports Online, issue.5, pp.615-616, 2011.
Photoluminescent 3D Lanthanide?Organic Frameworks with 2,5-Pyridinedicarboxylic and 1,4-Phenylenediacetic Acids, Crystal Growth & Design, vol.8, issue.7, pp.2505-2516, 2008. ,
Hydrothermal synthesis, crystal structure and magnetic characterization of two 4f-3d heterometallic coordination polymers, Inorganica Chimica Acta, issue.5, pp.1008-1012, 2010. ,
Synthesis, crystal structure, and magnetic properties of two 3d-4f heterometallic coordination polymers, Polyhedron, issue.18, pp.3197-3201, 2011. ,
, Rigaku Oxford Diffraction, CrysAlis PRO
, Oxford Diffraction LtD, 2015.
, Acta Cryst, vol.64, pp.112-122, 2008.
OLEX2, a complete structure solution, refinement and analysis program, J Appl Crystallogr, vol.42, issue.2, pp.339-341, 2009. ,
Mercury CSD 2.0 -New Features for the Visualization and Investigation of Crystal Structures, J Appl Cryst, vol.41, pp.466-470, 2008. ,
, , 2004.
Incorporating Metal Clusters into Three-Dimensional Ln(III)?Cu(I) Coordination Frameworks through Linear Ligands, Crystal Growth & Design, vol.7, issue.9, pp.1726-1732, 2007. ,
Novel threedimensional Ln-Ag 4d-4f heteropentametallic helixbased microporous metal-organic framework with unprecedented (3,4,5,6)-connected topology constructed from isonicotinate ligand, CrystEngComm, vol.12, pp.2014-2017, 2010. ,
Metal Carboxylates with Open Architectures, Angew Chem Int Ed, issue.12, pp.1466-149, 2004. ,
, Inorg. Chem, vol.57, pp.3399-3410, 2018.
, Cryst. Growth Des, vol.17, pp.1224-1234, 2017.
, Inorg. Chim. Acta, vol.461, pp.136-144, 2017.
, Chem. Rev, vol.109, pp.4283-4374, 2009.
, Inorg. Chim. Acta, vol.361, pp.3997-4003, 2001.
, Z. Anorg. Allg. Chem, vol.636, pp.1392-1396, 2010.
, Transition Met. Chem, vol.35, pp.991-997, 2010.
, Z. Anorg. Allg. Chem, vol.636, pp.2691-2697, 2010.
, Chem. Rev, vol.112, pp.1126-1162, 2012.
, Cryst. Growth Des, vol.3, pp.1015-1020, 2003.
, Inorg. Chem, vol.47, pp.3700-3708, 2008.
, Science, vol.295, pp.469-472, 2002.
, Inorg. Chem, vol.48, pp.11342-11351, 2009.
, Inorg. Chem, vol.48, pp.6086-6095, 2009.
, J. Mater. Chem. C, vol.2, pp.5510-5525, 2014.
, Inorg. Chem, vol.54, pp.5534-5546, 2015.
, J. Appl. Cryst, vol.45, pp.849-854, 2012.
, Inorg. Chem, vol.53, pp.1217-1228, 2014.
, Inorg. Chem, vol.55, pp.794-802, 2016.
, J. Am. Chem. Soc, vol.131, pp.17490-17499, 2009.
, Crystals in Gels and Liesegang Rings, 1988.
, J. Solid State Chem, vol.182, pp.215-222, 2009.
, J. Alloys Compd, vol.451, pp.377-383, 2008.
, Cryst. Growth Des, vol.10, pp.775-781, 2010.
, Chem. Soc. Rev, vol.38, pp.1450-1459, 2009.
, Inorg. Chem. Commun, vol.12, pp.1027-1030, 2009.
, Chem. Eur. J, vol.13, pp.4948-4955, 2007.
, CrystEngComm, vol.15, pp.1882-1896, 2013.
, Eur. J. Inorg. Chem, pp.3705-3716, 2011.
, Inorg. Chim. Acta, vol.368, pp.170-178, 2011.
, Macromolecular Crystallography, Part A, vol.276, 1997.
, , pp.307-326
, J. Am. Chem. Soc, vol.125, pp.3062-3067, 2003.
, Inorg. Chim. Acta, vol.360, pp.3265-3271, 2007.
, , 1999.
, Angew. Chem. Int. Ed, vol.38, pp.2590-2594
, Eur. J. Inorg. Chem, pp.4369-4376, 2011.
, J. Inorg. Organomet. Polym, vol.23, pp.1068-1077, 2013.
, Coord. Chem. Rev, vol.253, pp.2328-2341, 2009.
, Acta Cryst, vol.71, pp.3-8, 2015.
, Acta Cryst, vol.71, pp.3-8, 2015.
, J. Mater. Chem. A, vol.2, pp.20908-20915, 2014.
, Eur. J. Inorg. Chem, pp.1390-1397, 2015.
, Inorg. Chim. Acta, vol.362, pp.4268-4271, 2009.
, Inorg. Chem. Commun, vol.19, pp.31-35, 2012.
, J. Solid State Chem, vol.190, pp.208-215, 2012.
, J. Solid State Chem, vol.184, pp.1387-1392, 2011.
, Acta Cryst, vol.75, pp.378-382, 2019.
, Acta Cryst, vol.75, pp.378-382, 2019.
, , vol.75, pp.378-382, 2019.
Computing details Data collection: COLLECT (Bruker, 2004); cell refinement: SCALEPACK (Otwinowski & Minor, 1997); data reduction: DENZO and SCALEPACK (Otwinowski & Minor, 1997); program(s) used to solve structure: SHELXT (Sheldrick, 2015a); program(s) used to refine structure: SHELXL (Sheldrick, 2015b); molecular graphics: DIAMOND ,
, Acta Cryst, vol.75, pp.378-382, 2019.
, Acta Cryst, vol.75, pp.378-382, 2019.
, C8-C9-H9 119.4 O7-La1-O2 134, vol.87, pp.5-8