187 results on '"Franke, Alicja"'
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2. Redox cycling in the activation of peroxides by iron porphyrin and manganese complexes. ‘Catching’ catalytic active intermediates
3. Reductive Coupling of Nitric Oxide by Cu(I): Stepwise Formation of Mono- and Dinitrosyl Species En Route to a Cupric Hyponitrite Intermediate
4. A macrocyclic quinol-containing ligand enables high catalase activity even with a redox-inactive metal at the expense of the ability to mimic superoxide dismutase
5. Understanding the mechanism by which Gd(III) coiled coils achieve magnetic resonance relaxivity - a study into the water coordination chemistry
6. Diquinol Functionality Boosts the Superoxide Dismutase Mimicry of a Zn(II) Complex with a Redox-Active Ligand while Maintaining Catalyst Stability and Enhanced Activity in Phosphate Solution
7. Mechanistic Insights into Superoxide Dismutation Driven by Dinuclear Manganese Complexes: The Role of the Mn2‑Core.
8. A Highly Water‐ and Air‐Stable Iron‐Containing MRI Contrast Agent Sensor for H 2 O 2
9. Metal-Assisted Activation of Nitric Oxide—Mechanistic Aspects of Complex Nitrosylation Processes
10. Selectivity of tungsten mediated dinitrogen splitting vs. proton reduction† †Electronic supplementary information (ESI) available. CCDC 1943888–1943892. For ESI and crystallographic data in CIF or other electronic format see DOI: 10.1039/c9sc03779a
11. Experimental and Computational Insight into the Mechanism of NO Binding to Ferric Microperoxidase. The Likely Role of Tautomerization to Account for the pH Dependence
12. A complete volume profile for the reversible binding of camphor to cytochrome P450cam
13. Mechanistic insight from thermal activation parameters for oxygenation reactions of different substrates with biomimetic iron porphyrin models for compounds I and II
14. A Macrocyclic Ligand Framework That Improves Both the Stability and T1-Weighted MRI Response of Quinol-Containing H2O2 Sensors
15. A Highly Water‐ and Air‐Stable Iron‐Containing MRI Contrast Agent Sensor for H2O2.
16. A Highly Water‐ and Air‐Stable Iron‐Containing MRI Contrast Agent Sensor for H2O2.
17. A broad view at the complexity involved in water oxidation catalysis based on Ru-bpn complexes
18. Thermodynamic and kinetic studies on the binding of nitric oxide to a new enzyme mimic of cytochrome P450
19. Quinol-containing ligands enable high superoxide dismutase activity by modulating coordination number, charge, oxidation states and stability of manganese complexes throughout redox cycling
20. A broad view on the complexity involved in water oxidation catalysis based on Ru–bpn complexes
21. Metal compounds and small molecules activation – case studies
22. Positive Charge on Porphyrin Ligand and Nature of Metal Center Define Basic Physicochemical Properties of Cationic Manganese and Iron Porphyrins in Aqueous Solution
23. Synthesis of a Hybrid between SOD Mimetic and Ebselen to Target Oxidative Stress
24. Formation and Reactivity of New Isoporphyrins: Implications for Understanding the Tyr-His Cross-Link Cofactor Biogenesis in Cytochrome c Oxidase
25. Structure and reactivity of [RuII(terpy)(N^N)Cl]Cl complexes: consequences for biological applications
26. Two Unsupported Terminal Hydroxido Ligands in a μ-Oxo-Bridged Ferric Dimer: Protonation and Kinetic Lability Studies
27. Activation parameters for heme-NO binding in Alcaligenes xylosoxidans cytochrome c': the putative dinitrosyl intermediate forms via a dissociative mechanism
28. Chapter Four - Metal-Assisted Activation of Nitric Oxide—Mechanistic Aspects of Complex Nitrosylation Processes
29. Low-temperature rapid-scan detection of reactive intermediates in epoxidation reactions catalyzed by a new enzyme mimic of cytochrome P450
30. Mechanistic studies on the binding of nitric oxide to a synthetic heme-thiolate complex relevant to cytochrome P450
31. Adding a Second Quinol to a Redox-Responsive MRI Contrast Agent Improves Its Relaxivity Response to H2O2
32. Switching between Inner- and Outer-Sphere PCET Mechanisms of Small-Molecule Activation: Superoxide Dismutation and Oxygen/Superoxide Reduction Reactivity Deriving from the Same Manganese Complex
33. Structure and reactivity of [RuII(terpy)(N^N)Cl]Cl complexes: consequences for biological applications
34. Substrate binding favors enhanced NO binding to P450cam
35. Metal-assisted activation of nitric oxide : mechanistic aspects of complex nitrosylation processes
36. ChemInform Abstract: Redox Cycling in the Activation of Peroxides by Iron Porphyrin and Manganese Complexes. ′Catching′ Catalytic Active Intermediates
37. The effect of N-methylimidazole on the reactivity of a model complex for compound II : a combined experimental and theoretical study
38. Inside Back Cover: Spectroscopic and Kinetic Evidence for the Crucial Role of Compound 0 in the P450cam‐Catalyzed Hydroxylation of Camphor by Hydrogen Peroxide (Chem. Eur. J. 43/2015)
39. Spectroscopic and Kinetic Evidence for the Crucial Role of Compound 0 in the P450cam‐Catalyzed Hydroxylation of Camphor by Hydrogen Peroxide
40. Cover Picture: Drug Metabolism by Cytochrome P450 Enzymes: What Distinguishes the Pathways Leading to Substrate Hydroxylation Over Desaturation? (Chem. Eur. J. 25/2015)
41. Drug Metabolism by Cytochrome P450 Enzymes: What Distinguishes the Pathways Leading to Substrate Hydroxylation Over Desaturation?
42. Structure and reactivity of [RuII(terpy)(N^N)Cl]Cl complexes: consequences for biological applications.
43. Adding a Second Quinol to a Redox-Responsive MRI Contrast Agent Improves Its Relaxivity Response to H2O2.
44. From NO to Peroxide Activation by Model Iron(III) Complexes
45. Direct evidence for catalase activity of [RuV(edta)(O)]−
46. Combined Experimental and Theoretical Study on the Reactivity of Compounds I and II in Horseradish Peroxidase Biomimetics
47. Mechanistic Insight into Peroxo-Shunt Formation of Biomimetic Models for Compound II, Their Reactivity toward Organic Substrates, and the Influence ofN-Methylimidazole Axial Ligation
48. Temperature and Pressure Effects on C–H Abstraction Reactions Involving Compound I and II Mimics in Aqueous Solution
49. RuIII(edta) mediated oxidation of azide in the presence of hydrogen peroxide. Azide versus peroxide activation
50. Factors That Determine the Mechanism of NO Activation by Metal Complexes of Biological and Environmental Relevance (Eur. J. Inorg. Chem. 4/2013)
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