| Ultrafast Energy Transfer in Orthogonal Heptamethine Cyanine–Naphthalimide Systems: A Pathway toward High-Energy Excitation | The journal of physical chemistry. A |  | | 2026 | 9 | 0 |
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| Lanthanide-based light upconversion implemented in molecular complexes using linear optics | Handbook on the Physics and Chemistry of Rare Earths |  | | 2026 | 0 | 0 |
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| Molecular Fe(ii)–Ln(iii) dyads for luminescence reading of spin-state equilibria at the molecular level | Dalton transactions |  | | 2024 | 109 | 78 |
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| Preorganized Polyaromatic Soft Terdentate Hosts for the Capture of [Ln(β‐diketonate)3] Guests in Solution | Chemistry |  | | 2023 | 195 | 282 |
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| Symmetry and Rigidity for Boosting Erbium-Based Molecular Light-Upconversion in Solution | Angewandte Chemie. International edition in English |  | | 2023 | 193 | 0 |
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| Rational Loading of Linear Multi‐Site Receptors with Functional Lanthanide Containers: The Missing Link between Oligomers and Polymers | Small |  | | 2023 | 72 | 55 |
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| Metal-Based Linear Light Upconversion Implemented in Molecular Complexes: Challenges and Perspectives | Accounts of chemical research |  | | 2022 | 413 | 448 |
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| Molecular light-upconversion: we have had a problem! When excited state absorption (ESA) overcomes energy transfer upconversion (ETU) in Cr(iii)/Er(iii) complexes | Dalton Transactions |  | | 2021 | 365 | 101 |
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| Ligand-Sensitized Near-Infrared to Visible Linear Light Upconversion in a Discrete Molecular Erbium Complex | Journal of the American Chemical Society |  | | 2021 | 286 | 589 |
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| Bottom-Up Approach for the Rational Loading of Linear Oligomers and Polymers with Lanthanides | Inorganic chemistry |  | | 2021 | 288 | 481 |
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| Neutral Heteroleptic Lanthanide Complexes for Unravelling Host–Guest Assemblies in Organic Solvents: The Law of Mass Action Revisited | Inorganic Chemistry |  | | 2020 | 500 | 482 |
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| Erbium complexes as pioneers for implementing linear light-upconversion in molecules | Materials Horizons |  | | 2020 | 418 | 302 |
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| Deciphering and quantifying linear light upconversion in molecular erbium complexes | Chemical Science |  | | 2019 | 569 | 335 |
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| A Rational Approach to Metal Loading of Organic Multi-Site Polymers: Illusion or Reality? | Chemistry - A European Journal |  | | 2018 | 678 | 526 |
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| Thermodynamic Programming of Erbium(III) Coordination Complexes for Dual Visible/Near-Infrared Luminescence | Chemistry - A European Journal |  | | 2018 | 653 | 771 |
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| Room-Temperature Linear Light Upconversion in a Mononuclear Erbium Molecular Complex | Angewandte Chemie: International Edition |  | | 2018 | 744 | 723 |
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| Controlling Lanthanide Exchange in Triple-Stranded Helicates: A Way to Optimize Molecular Light-Upconversion | Angewandte Chemie: International Edition |  | | 2017 | 528 | 1 |
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| CrIII as an alternative to RuII in metallo-supramolecular chemistry | Dalton transactions |  | | 2017 | 612 | 6 |
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| Taming Lanthanide-Centered Upconversion at the Molecular Level | Inorganic chemistry |  | | 2016 | 651 | 0 |
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| Smaller than a nanoparticle with the design of discrete polynuclear molecular complexes displaying near-infrared to visible upconversion | Dalton transactions |  | | 2015 | 899 | 0 |
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| Metal loading of lanthanidopolymers driven by positive cooperativity | Dalton transactions |  | | 2015 | 591 | 0 |
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| Lanthanide Loading of Luminescent Multi-Tridentate Polymers under Thermodynamic Control | Inorganic chemistry |  | | 2014 | 693 | 3 |
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| Lanthanide-to-Lanthanide Energy-Transfer Processes Operating in Discrete Polynuclear Complexes: Can Trivalent Europium Be Used as a Local Structural Probe? | Chemistry |  | | 2014 | 673 | 2 |
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| Near-Infrared to Visible Light-Upconversion in Molecules: From Dream to Reality | Journal of physical chemistry. C |  | | 2013 | 876 | 4 |
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| Lanthanide hexafluoroacetylacetonates vs. nitrates for the controlled loading of luminescent polynuclear single-stranded oligomers | Chemical science |  | | 2013 | 678 | 2 |
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| Optimizing Millisecond Time Scale Near-Infrared Emission in Polynuclear Chrome(III)–Lanthanide(III) Complexes | Journal of the American Chemical Society |  | | 2012 | 790 | 2 |
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| N-Heterocyclic Tridentate Aromatic Ligands Bound to [Ln(hexafluoroacetylacetonate)3] Units: Thermodynamic, Structural, and Luminescent Properties | Chemistry |  | | 2012 | 705 | 2 |
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| Dimerization of Dendrimeric Lanthanide Complexes: Thermodynamic, Thermal, and Liquid-Crystalline Properties | Inorganic chemistry |  | | 2010 | 728 | 0 |
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| Enthalpy/entropy compensation in the melting of thermotropic nitrogen-containing chelating ligands and their lanthanide complexes: successes and failures | European journal of inorganic chemistry |  | | 2010 | 578 | 0 |
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| Rational tuning of melting entropies for designing luminescent lanthanide-containing thermotropic liquid crystals at room temperature | Chemistry |  | | 2007 | 676 | 0 |
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| Introducing Bulky Functional Lanthanide Cores into Thermotropic Metallomesogens: A Bottom-Up Approach | Advanced functional materials |  | | 2006 | 586 | 0 |
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| Structural, Thermodynamic, and Mesomorphic Consequences of Replacing Nitrates with Trifluoroacetate Counteranions in Ternary Lanthanide Complexes with Hexacatenar Tridentate Ligands | Inorganic Chemistry |  | | 2006 | 797 | 0 |
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| Polarization Loops Observed in Liquid Crystal with a New Banana-Shaped Ligand | Ferroelectrics |  | | 2002 | 558 | 1 |
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| Aromatic bent-core liquid crystals : an opportunity for introducing terdentate binding units into mesophases | Chemistry of materials |  | | 2002 | 785 | 0 |
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| Extended Rodlike Polyaromatic Receptors with Bent Tridentate Units Complexed to Lanthanide Metal Ions | Inorganic chemistry | | | 2000 | 749 | 0 |
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| Tridentate binding units as structural patterns for the design of nine-coordinate lanthanide building blocks with predetermined properties | Journal of Alloys and Compounds |  | | 2000 | 329 | 0 |
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| Bent tridentate receptors in calamitic mesophases with predetermined photophysical properties : new luminescent lanthanide-containing materials | Journal of the American Chemical Society | | | 1998 | 688 | 0 |
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