All Stories

  1. Transitioning to Green Discovery‐Based Catalysis
  2. Neoteric solvents for exploratory catalysis: hydrophosphination catalysis with CHEM21 solvents
  3. Neoteric Solvents for Exploratory Catalysis: Hydrophosphination Catalysis with CHEM21 Solvents
  4. Grignard Reagents as Simple Preatalysts for the Dehydrocoupling of Amines and Silanes
  5. Grignard Reagents as Simple Catalysts for the Dehydrocoupling of Amines and Silanes
  6. Bis(N-tert-butylacetamido)(dimethylamido)(chloro)titanium
  7. Bis(N-tert-butylacetamido)(dimethylamido)(chloro)titanium
  8. Bis(N-tert-butylacetamido)(dimethylamido)(chloro)titanium
  9. Grignard reagents as simple precatalysts for the dehydrocoupling of amines and silanes
  10. Cover Feature: Group I Alkoxides and Amylates as Highly Efficient Silicon–Nitrogen Heterodehydrocoupling Precatalysts for the Synthesis of Aminosilanes (Chem. Eur. J. 66/2023)
  11. Group I Alkoxides and Amylates as Highly Efficient Silicon–Nitrogen Heterodehydrocoupling Precatalysts for the Synthesis of Aminosilanes
  12. Group I Alkoxides and Amylates as Highly Efficient Silicon–Nitrogen Heterodehydrocoupling Precatalysts for the Synthesis of Aminosilanes
  13. Synthesis and Characterization of 2-(((2,7-Dihydroxynaphthalen-1-yl)methylene)amino)-3′,6′-bis(ethylamino)-2′,7′-dimethylspiro[isoindoline-1,9′-xanthen]-3-one and Colorimetric Detection of Uranium in Water
  14. Editorial Reflections: A Symphony of p‐Block Chemistry
  15. Cover Feature: Zirconocene‐Mediated Radical Hydrophosphination (Eur. J. Inorg. Chem. 27/2023)
  16. Group I Alkoxides and Amylates as Highly Efficient Radical Precatalysts for Silicon–Nitrogen Heterodehydrocoupling
  17. In Honor of Prof. Dr. Dr. hc Rainer Streubel
  18. Unusual nuclear exchange within a germanium-containing aromatic ring that results in germanium atom transfer
  19. Zirconocene‐Mediated Radical Hydrophosphination
  20. Zirconocene-Mediated Radical Hydrophosphination
  21. Commercially Available Organolithium Compounds as Effective, Simple Precatalysts for Silicon–Nitrogen Heterodehydrocoupling
  22. Unexpected C–O Bond Cleavage by a Copper–Phosphido Compound
  23. Zirconocene-Mediated Radical Hydrophosphination
  24. Unexpected C–O Bond Cleavage by a Copper–Phosphido Compound
  25. Photo-Initiated Radical Hydrophosphination at Titanium Compounds Capable of Ti–P Insertion
  26. Photo-Initiated Radical Hydrophosphination at Titanium Compounds Capable of Ti-P Insertion
  27. Radical Hydrophosphination Initiated by Triamidoamine-Supported Titanium Despite Insertion into the Ti–P Bond
  28. Commercially available organolithium compounds as effective, simple precatalysts for silicon–nitrogen heterodehydrocoupling
  29. Recent advances in catalytic pnictogen bond forming reactionsviadehydrocoupling and hydrofunctionalization
  30. Divergent Mechanistic Pathways for Copper(I) Hydrophosphination Catalysis: Understanding That Allows for Diastereoselective Hydrophosphination of a Tri-substituted Styrene
  31. Divergent Mechanistic Pathways for Copper(I) Hydrophosphination Catalysis: Understanding that Allows for Diastereoselective Hydrophosphination of a Tri-substituted Styrene
  32. Divergent Mechanistic Pathways for Copper(I) Hydrophosphination Catalysis: Understanding that Allows for Diastereoselective Hydrophosphination of a Tri-substituted Styrene
  33. Metal‐Catalyzed Hydrophosphination
  34. Metal-Catalyzed Hydrophosphination
  35. Metal-Catalyzed Hydrophosphination
  36. 2,6-Bis[bis(1,1-dimethylethyl)phosphinito-κP]phenyl-κC]-trans-chlorohydro(phenylphosphine)iridium(III)
  37. 2,6-Bis[[bis(1,1-dimethylethyl)phosphino-κP]methyl]phenyl-κC]chlorohydro(phenylphosphine)iridium
  38. Cyclo-Tetrakis(μ-diphenylphosphido)-1,5-bis(tri-tert-butylphosphine)-Tetracopper
  39. Effect of Photolysis on Zirconium Amino Phenoxides for the Hydrophosphination of Alkenes: Improving Catalysis
  40. Cy-clo-tetrakis(μ-diphenylphosphido)-1,5-bis(tri-tert-butylphosphine-tetracopper(I)
  41. Effect of Photolysis on Zirconium Amino Phenoxides for the Hydrophosphination of Alkenes: Improving Catalysis
  42. A summary of the special issue on phosphorus chemsitry
  43. A Bench-Stable Catalyst for the Rapid Hydrophosphination of Activated and Unactivated Alkenes
  44. Photocatalytic Hydrophosphination with Air-Stable and Commercially Available Bis(acetylacetonato)copper(II) (Cu(acac)2)
  45. Actinide 2-metallabiphenylenes that satisfy Hückel’s rule
  46. Photoactivated Silicon–Oxygen and Silicon–Nitrogen Heterodehydrocoupling with a Commercially Available Iron Compound
  47. A bench-stable copper photocatalyst for the rapid hydrophosphination of activated and unactivated alkenes
  48. Photoactivated silicon–oxygen and silicon–nitrogen heterodehydrocoupling with a commercially available iron compound
  49. Photoactivated Silicon–Oxygen and Silicon–Nitrogen Heterodehydrocoupling with a Commercially Available Iron Compound
  50. A Commercially Available Ruthenium Compound for Catalytic Hydrophosphination
  51. Triamidoamine-Supported Zirconium Compounds in Main Group Bond-Formation Catalysis
  52. A Commercially Available Ruthenium Compound for Catalytic Hydrophosphination
  53. Element–Hydrogen Bond Activations at Cationic Platinum Centers To Produce Silylene, Germylene, Stannylene, and Stibido Complexes
  54. Structural versatility of the quasi-aromatic Möbius type zinc(ii)-pseudohalide complexes – experimental and theoretical investigations
  55. Photocatalytic Hydrophosphination of Alkenes and Alkynes Using Diphenylphosphine and Triamidoamine‐Supported Zirconium
  56. Si–N Heterodehydrocoupling with a Lanthanide Compound
  57. An Inorganic Chemistry Laboratory Course as Research
  58. Light-Driven, Zirconium-Catalyzed Hydrophosphination with Primary Phosphines
  59. Catalytic N–Si coupling as a vehicle for silane dehydrocoupling via α-silylene elimination
  60. Visible-light and thermal driven double hydrophosphination of terminal alkynes using a commercially available iron compound
  61. Cover Feature: Evidence for Iron-Catalyzed α-Phosphinidene Elimination with Phenylphosphine (Chem. Eur. J. 11/2018)
  62. Evidence for Iron‐Catalyzed α‐Phosphinidene Elimination with Phenylphosphine
  63. Visible Light Photocatalysis Using a Commercially Available Iron Compound
  64. Synthesis and characterization of a new and electronically unusual uranium metallacyclocumulene, (C5Me5)2U(η4-1,2,3,4-PhC4Ph)
  65. Educational and Outreach Projects from the Cottrell Scholars Collaborative Professional Development and Outreach Volume 2
  66. Educational and Outreach Projects from the Cottrell Scholars Collaborative Undergraduate and Graduate Education Volume 1
  67. The Cottrell Scholars Collaborative New Faculty Workshop: Early Lessons for Change in Teaching
  68. Throwing Away the Cookbook: Implementing Course-Based Undergraduate Research Experiences (CUREs) in Chemistry
  69. Zirconium-Catalyzed Intermolecular Double Hydrophosphination of Alkynes with a Primary Phosphine
  70. Zirconium-Catalyzed Alkene Hydrophosphination and Dehydrocoupling with an Air-Stable, Fluorescent Primary Phosphine
  71. Challenges in Catalytic Hydrophosphination
  72. A “Bottle-able” Phosphinidene
  73. Exciton Delocalization in H2OBPc1–xMOBPcx (M = Co, Cu, Ni, Mn) Crystalline Thin-Film Organic Alloys
  74. Selectivity effects in zirconium-catalyzed heterodehydrocoupling reactions of phosphines
  75. Tuning the Oxidation State, Nuclearity, and Chemistry of Uranium Hydrides with Phenylsilane and Temperature: The Case of the Classic Uranium(III) Hydride Complex [(C5Me5)2U(μ-H)]2
  76. Metal-Ligand Cooperativity in a Methandiide-Derived Iridium Carbene Complex
  77. Zirconium-catalyzed intermolecular hydrophosphination using a chiral, air-stable primary phosphine
  78. Zn(II) and Cd(II) complexes with isonicotinoylhydrazone ligand
  79. Phosphorus chemistry: discoveries and advances
  80. Tin-catalyzed hydrophosphination of alkenes
  81. Triamidoamine-supported zirconium: hydrogen activation, Lewis acidity, and rac-lactide polymerization
  82. Spin Exchange Interaction in Substituted Copper Phthalocyanine Crystalline Thin Films
  83. Organic analogues of diluted magnetic semiconductors: bridging quantum chemistry to condensed matter physics
  84. Zirconium-Catalyzed Amine Borane Dehydrocoupling and Transfer Hydrogenation
  85. Iridium Pincer Catalysts for Silane Dehydrocoupling: Ligand Effects on Selectivity and Activity
  86. Macroscopic Molecular Ordering and Exciton Delocalization in Crystalline Phthalocyanine Thin Films
  87. Cobalt-catalyzed ammonia borane dehydrocoupling and transfer hydrogenation under aerobic conditions
  88. Unexpected formal insertion of CO2 into the C–Si bonds of a zinc compound
  89. Phenylsilane as a safe, versatile alternative to hydrogen for the synthesis of actinide hydrides
  90. Carbon–Hydrogen Bond Activation, C–N Bond Coupling, and Cycloaddition Reactivity of a Three-Coordinate Nickel Complex Featuring a Terminal Imido Ligand
  91. New chemistry faculty professional development
  92. Editorial
  93. Exploration of tin-catalyzed phosphine dehydrocoupling: Catalyst effects and observation of tin-catalyzed hydrophosphination
  94. Synthesis, structure, and reactivity of platinum compounds featuring terminal amido and phosphido ligands
  95. Intermolecular Zirconium-Catalyzed Hydrophosphination of Alkenes and Dienes with Primary Phosphines
  96. Dehydrocoupling of amine boranes via tin(IV) and tin(II) catalysts
  97. σ-Bond Metathesis: A 30-Year Retrospective
  98. Metal Complexes (M = Zn, Sn, and Pb) of 2-Phosphinobenzenethiolates: Insights into Ligand Folding and Hemilability
  99. Zirconium-Mediated Synthesis of Arsaalkene Compounds from Arsines and Isocyanides
  100. Mechanisms of metal-catalyzed dehydrocoupling reactions
  101. A general synthesis of phosphaalkenes at zirconium with liberation of phosphaformamides
  102. As–As Bond Formation via Reductive Elimination from a Zirconocene Bis(dimesitylarsenide) Compound
  103. Dehydrogenative Bond-Forming Catalysis Involving Phosphines: Updated Through 2010
  104. rac-18-Methoxycoronaridine hydrochloride
  105. Bis(4-methyl-N-{(2Z,4E)-4-[(4-methylphenyl)imino]pent-2-en-2-yl}anilinido)zinc
  106. Synthesis and characterization of zinc complexes and reactivity with primary phosphines
  107. C–N Bond formation via ligand-induced nucleophilicity at a coordinated triamidoamine ligand
  108. Differences in the stability of zirconium(IV) complexes related to catalytic phosphine dehydrocoupling reactions
  109. Terminal hafnium phosphinidene complexes and phosphinidene ligand exchange
  110. Insertion Reactions and Catalytic Hydrophosphination by Triamidoamine-Supported Zirconium Complexes
  111. Insertion reactions involving a triamidoamine-supported zirconium complex
  112. Triamidoamine-supported zirconium complexes in the catalytic dehydrocoupling of 1,2-bisphosphinobenzene and -ethane
  113. Group-Transfer Reactions of Nickel−Carbene and −Nitrene Complexes with Organoazides and Nitrous Oxide that Form New C═N, C═O, and N═N Bonds
  114. Synthesis, Structure, and Reactivity of Neutral Hydrogen-Substituted Ruthenium Silylene and Germylene Complexes
  115. Sequential Insertion Reactions of Carbon Monoxide and Ethylene into the Ni−C Bond of a Cationic Nickel(II) Alkyl Complex
  116. A Hydrogen-Substituted Osmium Stannylene Complex: Isomerization to a Metallostannylene Complex via an Unusual α-Hydrogen Migration from Tin to Osmium
  117. Metal-phosphido and -phosphinidene complexes in P–E bond-forming reactions
  118. General Preparation of (N3N)ZrX (N3N = N(CH2CH2NSiMe3)33−) Complexes from a Hydride Surrogate
  119. Dehydrogenative Bond-Forming Catalysis Involving Phosphines
  120. Paramagnetic Vanadium Silyl Complexes: Synthesis, Structure, and Reactivity
  121. η2-Organoazide Complexes of Nickel and Their Conversion to Terminal Imido Complexes via Dinitrogen Extrusion
  122. β-Phosphinoethylboranes as Ambiphilic Ligands in Nickel−Methyl Complexes
  123. {N,N-Bis[2-(trimethylsilylamino)ethyl]-N′-(trimethylsilyl)ethane-1,2-diaminato(3–)-κ4N}methylzirconium(IV)
  124. Mechanistic variety in zirconium-catalyzed bond-forming reaction of arsines
  125. Zirconium-Catalyzed Heterodehydrocoupling of Primary Phosphines with Silanes and Germanes
  126. Synthetic Development and Chemical Reactivity of Transition-Metal Silylene Complexes
  127. Selective Dehydrocoupling of Phosphines by Triamidoamine Zirconium Catalysts
  128. Insertion of benzyl isocyanide into a Zr–P bond and rearrangement. Atom-economical synthesis of a phosphaalkene
  129. Antimony−Antimony Bond Formation by Reductive Elimination from a Hafnium Bis(stibido) Complex
  130. Catalytic Antimony–Antimony Bond Formation through Stibinidene Elimination from Zirconocene and Hafnocene Complexes
  131. Terminal stibinidene ligands. Generation of CpCp*HfSb(dmp) and trapping reactions with PMe3and 2-butyne
  132. Hydrogen-Substituted Osmium Silylene Complexes:  Effect of Charge Localization on Catalytic Hydrosilation
  133. Synthesis and structure of a terminal dinitrogen complex of nickel
  134. Formation of Phosphirenes by Phosphinidene Group-Transfer Reactions from (dtbpe)NiP(dmp) to Alkynes
  135. Group Transfer from Nickel Imido, Phosphinidene, and Carbene Complexes to Ethylene with Formation of Aziridine, Phosphirane, and Cyclopropane Products
  136. Synthesis of 1,2-bis(di-tert-butylphosphino)ethane (dtbpe) complexes of nickel: radical coupling and reduction reactions promoted by the nickel(I) dimer [(dtbpe)NiCl]2
  137. A New Route to Coordination Complexes of Nitroxyl (HNO) via Insertion Reactions of Nitrosonium Triflate with Transition-Metal Hydrides
  138. Monomeric Phosphido and Phosphinidene Complexes of Nickel
  139. Synthesis, structure, and reactions of a nitroxyl complex of iridium(iii), cis,trans-IrHCl2(NHO)(PPh3)2