Aconitase as iron–sulfur protein, enzyme, and iron-regulatory protein

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Items 401–500 of 605

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2. IspH Protein of the Deoxyxylulose Phosphate Pathway: Mechanistic Studies with C1‐Deuterium‐Labeled Substrate and Fluorinated Analogue
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3. Substrate Specificity Determinants of the Methanogen Homoaconitase Enzyme: Structure and Function of the Small Subunit,
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4. Functional analysis of the small subunit of the putative homoaconitase fromPyrococcus horikoshiiin theThermuslysine biosynthetic pathway
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5. A three-coordinate Fe( ii ) center within a [3Fe–(μ 3 -S)] cluster that provides an accessible coordination site
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6. Ubiquity of cubanes in bioinorganic relevant compounds
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7. Generation and Reactivity of Polychalcogenide Chains in Binuclear Cobalt(II) Complexes
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8. Nonheme binuclear transition metal complexes with hydrosulfide and polychalcogenides
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9. Involvement of PI3K/Akt/CREB and redox changes in mitochondrial defect of osteoblastic MC3T3-E1 cells
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10. Molecular characterization of the iron binding protein ferritin in Eisenia andrei earthworms
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11. Understanding the Mechanism of [4Fe-4S] Cluster Assembly on Eukaryotic Mitochondrial and Cytosolic Aconitase
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12. Characterisation of iron regulatory protein 1A and 1B in the blood-feeding copepod Lepeophtheirus salmonis
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13. Dietary wheat germ oil influences gene expression in larvae and eggs of the oriental fruit fly
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14. Advanced electron paramagnetic resonance on the catalytic iron–sulfur cluster bound to the CCG domain of heterodisulfide reductase and succinate: quinone reductase
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15. Iron–Sulfur Clusters: Properties and Functions
    Louis Noodleman, Michael E. Pique, Victoria A. Roberts · 2008 · Wiley Encyclopedia of Chemical Biology
16. Mitochondrial Calcium Uniporter Regulates Metabolic Remodeling and Smooth Muscle Cell Proliferation in Type 2 Diabetes
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17. Sulfur partitioning from cysteine controls T cell proliferation and effector function
    Beth Kelly, Minsun Cha, Tatjana Gremelspacher, Jacob L. Martin, Massimo Andreis, Isha Maloo, Gustavo Carrizo, Mia Gidley, Michal A. Stanczak, Petya Apostolova et al. · 2026 · Cell
18. Two local minima for structures of [4Fe–4S] clusters obtained with density functional theory methods
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19. TudS desulfidases recycle 4-thiouridine-5’-monophosphate at a catalytic [4Fe-4S] cluster
    Jonathan M. Fuchs, Rapolas Jamontas, Maren Hellen Hoock · 2023 · Communications Biology
20. The Active-Site [4Fe-4S] Cluster in the Isoprenoid Biosynthesis Enzyme IspH Adopts Unexpected Redox States during Ligand Binding and Catalysis
    Selamawit Ghebreamlak, Sebastian A. Stoian, Nicholas S. Lees · 2024 · Journal of the American Chemical Society
21. An Unexpected Species Determined by X-ray Crystallography that May Represent an Intermediate in the Reaction Catalyzed by Quinolinate Synthase
    Olga A. Esakova, Alexey Silakov, Tyler L. Grove, Douglas M. Warui, Neela H. Yennawar, Squire J. Booker · 2019 · Journal of the American Chemical Society
22. All-Ferrous Iron–Sulfur Clusters
    Wenwen Yao, Prabhuodeyara M. Gurubasavaraj, Patrick L. Holland · 2012 · Structure and bonding
23. Structural characterization and comparison of the large subunits of IPM isomerase and homoaconitase fromMethanococcus jannaschii
    Eun Hye Lee, Kitaik Lee, Kwang Yeon Hwang · 2014 · Acta Crystallographica Section D Biological Crystallography
24. Metal ion oxidation state assignment based on coordinating ligand hyperfine interaction
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25. Understanding Rubredoxin Redox Sites by Density Functional Theory Studies of Analogues
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26. Electronic structure and fragmentation properties of [Fe4S4(SEt)4−x(SSEt)x]2−
    You‐Jun Fu, Julia Laskin, Lai‐Sheng Wang · 2007 · International Journal of Mass Spectrometry
27. Metabolic adaptation ofPseudomonas pseudoalcaligenesCECT5344 to cyanide: role of malate–quinone oxidoreductases, aconitase and fumarase isoenzymes
    M. Isabel Igeño, Gracia Becerra, M. Isabel Guijo, Faustino Merchán, Rafael Blasco · 2011 · Biochemical Society Transactions
28. Design of specific inhibitors of quinolinate synthase based on [4Fe–4S] cluster coordination
    Jaione Saez Cabodevilla, Anne Volbeda, Olivier Hamelin et al. · 2019 · Chemical Communications
29. Transcriptional upregulation of four genes of the lysine biosynthetic pathway by homocitrate accumulation in Penicillium chrysogenum: homocitrate as a sensor of lysine-pathway distress
    Franco G. Teves, Mónica Lamas Maceiras, Carlos García‐Estrada · 2009 · Microbiology
30. Incorporation of Ni2+, Co2+, and Selenocysteine into the Auxiliary Fe-S Cluster of the Radical SAM Enzyme HydG
    Guodong Rao, Katherine B. Alwan, Ninian J. Blackburn, R. David Britt · 2019 · Inorganic Chemistry
31. Amino Acid Biosynthesis
    Emily J. Parker, Andrew J. Pratt · 2010 · Wiley eBooks
32. Oxygen radical irradiation transforms an organic fertilizer l-tryptophan into an environment and human-friendly bactericide
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33. Design, Synthesis and Evaluation of Fe-S Targeted Adenosine 5′-Phosphosulfate Reductase Inhibitors
    Hanumantharao Paritala, Yuta Suzuki, Kate S. Carroll · 2015 · Nucleosides Nucleotides & Nucleic Acids
34. Disentangling Excimer Emission from Chiral Induction in Nanoscale Helical Silica Scaffolds Bearing Achiral Chromophores
    Maria João Álvaro‐Martins, Jose Garcés‐Garcés, Antoine Scalabre · 2022 · ChemPhysChem
35. Iron–Sulfur Centers: New Roles for Ancient Metal Sites
    Raquel Grazina, Sofia R. Pauleta, José J. G. Moura, Isabel Moura · 2013 · Elsevier eBooks
36. On–off Bodipy chemosensor for recognition of iron(III) ion based on the inner filter effect and its applications in cellular and bacterial imaging
    Lingcan Kong, Keyu Lu, Guangyuan Ma · 2016 · Luminescence
37. Sialylation of Asparagine 612 Inhibits Aconitase Activity during Mouse Sperm Capacitation; a Possible Mechanism for the Switch from Oxidative Phosphorylation to Glycolysis
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38. Non-mitochondrial aconitase regulates the expression of iron-uptake genes by controlling the RNA turnover process in fission yeast
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39. Electrostatic Edge: Decrypting the Near-Perfect Catalytic Efficiency of Fumarase
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40. Rust and redemption: iron–sulfur clusters and oxygen in human disease and health
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41. A [4Fe-4S] cluster resides at the active center of phosphomevalonate dehydratase, a key enzyme in the archaeal modified mevalonate pathway
    Mutsumi Komeyama, Kohsuke Kanno, Hiroyuki Mino, Yoko Yasuno, Tetsuro Shinada, Tomokazu Ito, Hisashi Hemmi · 2023 · Frontiers in Microbiology
42. Mutagenic and chemical analyses provide new insight into enzyme activation and mechanism of the type 2 iron-sulfur l-serine dehydratase from Legionella pneumophila
    Xiao Lan Xu, Gregory A. Grant · 2016 · Archives of Biochemistry and Biophysics
43. Induction of Aconitate Hydratase in Hepatocytes of Starving Rats
    Alexander T. Eprintsev, E. V. Semenova, Vasily N. Popov · 2002 · Biochemistry (Moscow)
44. The Kinetics of Enzyme Mixtures.
    Simon Brown, Noorzaid Muhamad, Kevin C. Pedley, David C. Simcock · 2014 · PubMed Central
45. A Northwestern blotting approach for studying iron regulatory element-binding proteins
    Zvezdana Popović, Douglas M. Templeton · 2005 · Molecular and Cellular Biochemistry
46. The molecular basis of the synergistic toxicity of nickel and copper, common environmental co-contaminants
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47. Engineering Saccharomyces cerevisiae for improving itaconic acid production
    Hao Xu, Wenwen Yu, Xuan Zhou · 2025 · Systems Microbiology and Biomanufacturing
48. Biochemical and Metabolic Implications of Tricarboxylic Acids and their Transporters
    Khalifa El-Dawy, Ashraf A. Elsayed, Sara El-Hefnawy, Nermeen El-Kahky · 2019 · Journal of Pure and Applied Microbiology
49. Native Protein Template Assisted Synthesis of Non-Native Metal-Sulfur Clusters
    Biplab K. Maiti, José J. G. Moura · 2022 · BioChem
50. Biological coordination chemistry, a confluence of chemistry and biochemistry
    Jack McB. Harrowfield · 2005 · Comptes Rendus Chimie
51. Molecular responses of Prunus avium (wild cherry) embryonic axes to temperatures affecting dormancy
    John R. Stephen, Katherine C. Dent, William E. Finch‐Savage · 2003 · New Phytologist
52. The Competition Between Chemistry and Biology in Assembling Iron–Sulfur Derivatives: Molecular Structures and Electrochemistry. Part VI. {[Fe 4 S 4 ](S γ Cys ) 3 (nonthiolate ligand)} Proteins
    Piero Zanello, Maddalena Corsini · 2017 · Elsevier eBooks
53. Disorders of iron metabolism
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54. The Iron Responsive Element (IRE), the Iron Regulatory Protein (IRP), and Cytosolic Aconitase
    Richard S. Eisenstein, Mary Claire Kennedy, Helmut Beinert · 1998 · Springer eBooks
55. Electrochemistry of Peroxidases
    Tautgirdas A Ruzgas, Annika Lindgren, Lo G. O. Gorton · 2002
56. Broken Symmetry States of Iron—Sulfur Clusters
    Louis Noodleman, David Andrew Case · 2005 · Encyclopedia of Inorganic Chemistry
57. Space-for-time substitution reveals mechanisms driving heavy metal induced dynamics of antibiotic resistance genes of varying risk levels in landfill leachate
    Zhurui Tang, Yanjiao Li, Luyu Zhang · 2026 · Journal of Hazardous Materials
58. The nitrogenase mechanism: new roles for the dangler?
    Rebeccah A. Warmack, Douglas C. Rees · 2024 · JBIC Journal of Biological Inorganic Chemistry
59. Iron-Sulfur Clusters and Iron Responsive Element Binding Proteins Mediate Iron Accumulation in Corneal Endothelial Cells in Fuchs Dystrophy
    Emma M. Hartness, Hanna Shevalye, Jessica M. Skeie, Timothy Eggleston, Matthew G. Field, Gregory A. Schmidt, Pornpoj Phruttiwanichakun, Aliasger K. Salem, Mark A. Greiner · 2025 · Investigative Ophthalmology & Visual Science
60. De Novo Design and Synthesis of Novel Benzoxazinone Derivatives Targeting Dihydroxyacid Dehydratase
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61. Redox-sensing iron-sulfur cluster regulators
    Jason C. Crack, Nick E. Le Brun · 2017 · Antioxidants and Redox Signaling
62. Revisiting the Burden Borne by Fumarase: Enzymatic Hydration of an Olefin
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63. Multifunctional Proteins and their Role in the Vital Activity of Cells
    D. A. Korshunov, Elena E. Sereda, И. В. Кондакова · 2023 · Russian Journal of Bioorganic Chemistry
64. Exchange variation of zero-field splittings in [Fe4S4]+ clusters of ferredoxins with high-spin S=3/2 ground state
    Moisey I. Belinsky · 2000 · Chemical Physics
65. Core Conversion Reactions of the Cubane-Type Metal-Sulfido Clusters: Shape Shift, Contraction, and Expansion of the MM′Re2S4Cubanes (M = Ir, Rh, Ru; M′ = Pt, Pd)
    Rie Shibata, Hidetake Seino, Shunpei Fujii · 2010 · Inorganic Chemistry
66. Theoretical Study of Geometries, Stabilities, and Electronic Properties of Cationic (FeS) n + (n = 1–5) Clusters
    A. Li-Ta, Yu Zhang, Jianping Bai · 2015 · Zeitschrift für Naturforschung A
67. Electron Paramagnetic Resonance ( EPR ) in Enzymology
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68. Ferredoxins Containing Two Different Fe / S Centers of the Forms [4 Fe –4 S ] and [3 Fe –4 S ]
    Charles David Stout · 2004 · Encyclopedia of Inorganic and Bioinorganic Chemistry
69. Monitoring iron-sulfur cluster occupancy across the E. coli proteome using chemoproteomics
    Daniel W. Bak, Eranthie Weerapana · 2021 · bioRxiv (Cold Spring Harbor Laboratory)
70. N ′-(1-Phenylethylidene)benzohydrazide Cytotoxicity Is Lysine-Specific Demethylase 1 Independent and Linked to Iron–Sulfur Cluster Disruption in Ewing Sarcoma
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71. ppGpp accumulation reduces the expression of the global nitrogen homeostasis-modulating NtcA regulon by affecting 2-oxoglutarate levels
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72. A Chemoproteomic Approach to Monitor Native Iron–Sulfur Cluster Binding
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73. Redox dynamics in seeds of Acer spp: unraveling adaptation strategies of different seed categories
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74. Development of a multi-effect CS-TPP-dsNFS1 mosquito control nanosystem that induces muscle ferroptosis through suppressing iron-sulfur-cluster biosynthesis
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75. The foldability landscape of model proteins
    Sridhar Govindarajan, Richard A. Goldstein · 1997 · Biopolymers
76. Spectroscopic characterization of a novel 2×[4Fe–4S] ferredoxin isolated from Desulfovibrio desulfuricans ATCC 27774
    Pedro M. Rodrigues, Isabel Moura, Anjos L. Macedo · 2003 · Inorganica Chimica Acta
77. Regulation of Iron Metabolism in Mammalian Cells
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78. [4Fe-4S]-dependent enzymes in non-redox tRNA thiolation
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79. Involvement of thiolate ligands in binding substrates to Fe–S clusters
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80. Desulfovibrio gigas ferredoxin II: redox structural modulation of the [3Fe–4S] cluster
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81. Biometallorganische Chemie mit IspG und IspH: Struktur, Funktion und Hemmung der an der Isoprenoid‐Biosynthese beteiligten [Fe4S4]‐Proteine
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82. Exploring the acid-catalyzed substitution mechanism of [Fe 4 S 4 Cl 4 ] 2−
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83. Trigger Enzymes: Coordination of Metabolism and Virulence Gene Expression
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84. A study of the metabolic adaptation provoked by decreased aconitase activity and increased ROS production as a consequence of Aluminum stress in Pseudomonas fluorescens
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85. Fe–S Clusters: Biogenesis and Redox, Catalytic, and Regulatory Properties
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86. Lactone synthesis activity in a site-directed mutant of an extradiol catechol dioxygenase enzyme
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87. The role of water stress in plant disease resistance and the impact of water stress on the global transcriptome and survival mechanisms of the phytopathogen Pseudomonas syringae
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88. Fe ‐ S ‐Based l ‐Serine Dehydratases
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89. Iron–Sulfur Proteins
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90. Cytosolic Aconitase
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91. Molecular characterization and tissue distribution of ferritin M in kelp grouper, Epinephelus bruneus
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92. Synthesis, Characterization, and Catalytic Activity of a Cubic [Mo3S4Pd] Cluster Bearing Bulky Cyclopentadienyl Ligands
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93. Disentangling First and Second Sphere Effects in Iron–Sulfur Cubanes
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94. Catalysis and Gene Regulation
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95. Involvement of the Iron Regulatory Protein from Eisenia andrei Earthworms in the Regulation of Cellular Iron Homeostasis
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96. Iron–Sulfur Clusters in “Radical SAM” Enzymes: Spectroscopy and Coordination
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97. X-ray crystal structures of [NHR3]2[Fe4S4X4] (X = PhS, R = Et or n Bu; X = Cl, R = n Bu): implications for sites of protonation in Fe–S clusters
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98. Revisiting prochirality
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99. S ‐Donor Ligands
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100. Addition of Water to CC Bonds and its Elimination
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