All Stories

  1. How firm a chemical bond is depends on how you break it!
  2. Urea hydrogen-bond donor strengths: bigger is not always better
  3. Iron-Catalyzed Activation of Carbon–Halogen Bonds
  4. “Hydridic Hydrogen-Bond Donors” Are Not Hydrogen-Bond Donors
  5. Cobalt‐Catalyzed Enantio‐ and Regioselective C(sp3)−H Alkenylation of Thioamides
  6. Cobalt‐Catalyzed Enantio‐ and Regioselective C(sp3)−H Alkenylation of Thioamides
  7. Rivaroxaban vs Vitamin K Antagonist in Patients With Atrial Fibrillation and Advanced Chronic Kidney Disease
  8. More Electropositive is More Electronegative: Atom Size Determines C=X Group Electronegativity
  9. Front Cover: Blueshift in Trifurcated Hydrogen Bonds: A Tradeoff between Tetrel Bonding and Steric Repulsion (ChemPhysChem 1/2024)
  10. Blueshift in Trifurcated Hydrogen Bonds: A Tradeoff between Tetrel Bonding and Steric Repulsion
  11. Origin of the Felkin–Anh(–Eisenstein) model: a quantitative rationalization of a seminal concept
  12. What defines electrophilicity in carbonyl compounds
  13. Retro-Cope elimination of cyclic alkynes: reactivity trends and rational design of next-generation bioorthogonal reagents
  14. Solvent-induced dual nucleophiles and the α-effect in the SN2 versus E2 competition
  15. The nature of metallophilic interactions in closed-shell d8–d8 metal complexes
  16. Nature and strength of group-14 A–A′ bonds
  17. Stabilization of Diborynes versus Destabilization of Diborenes by Coordination of Lewis Bases: Unravelling the Dichotomy
  18. Understanding the Retro‐Cope Elimination Reaction of Linear Alkynes
  19. Blueshift in Trifurcated Hydrogen Bonds: A Tradeoff between Tetrel Bonding and Steric Repulsion
  20. Unraveling the Bürgi-Dunitz Angle with Precision: The Power of a Two-Dimensional Energy Decomposition Analysis
  21. Cover Feature: Origin of the Bürgi‐Dunitz Angle (ChemPhysChem 17/2023)
  22. Unraveling the Bürgi-Dunitz Angle with Precision: The Power of a Two-Dimensional Energy Decomposition Analysis
  23. SN2 versus E2 Competition of Cyclic Ethers
  24. Understanding chemistry with thesymmetry‐decomposed Voronoideformation density charge analysis
  25. On the existence of collective interactions reinforcing the metal-ligand bond in organometallic compounds
  26. Origin of the Bürgi‐Dunitz Angle
  27. Cover Feature: Origin of the Captodative Effect: The Lone‐Pair Shielded Radical (ChemistryEurope 1/2023)
  28. Origin of the Captodative Effect: The Lone‐Pair Shielded Radical
  29. Probing Polar‐π Interactions Between Tetrazoles and Aromatic Rings**
  30. Palladium-catalyzed activation of HnA–AHnbonds (AHn= CH3, NH2, OH, F)
  31. Intermolecular Covalent Interactions: Nature and Directionality
  32. The Search for Enhanced σ‐Donor Ligands to Stabilize Boron‐Boron Multiple Bonds
  33. Insertion of CO2and CS2into Bi–N bonds enables catalyzed CH-activation and light-induced bismuthinidene transfer
  34. How Bases Catalyze Diels‐Alder Reactions
  35. C(spn)−X (n=1–3) Bond Activation by Iron
  36. On the existence of collective interactions
  37. The abnormally long and weak methylidyne C–H bond
  38. Author response for "The abnormally long and weak methylidyne C–H bond"
  39. Particle on a Ring Model for Teaching the Origin of the Aromatic Stabilization Energy and the Hückel and Baird Rules
  40. Author response for "The abnormally long and weak methylidyne C–H bond"
  41. Iodine Gauche Effect Induced by an Intramolecular Hydrogen Bond
  42. Methyl Substitution Destabilizes Alkyl Radicals
  43. Methyl Substitution Destabilizes Alkyl Radicals
  44. Palladium‐Catalyzed Activation of Carbon–Halogen Bonds: Electrostatics‐Controlled Reactivity
  45. SN2 versus SN2′ Competition
  46. Front Cover: How Ionization Catalyzes Diels‐Alder Reactions (Chem. Eur. J. 40/2022)
  47. How Ionization Catalyzes Diels–Alder Reactions
  48. C−X Bond Activation by Palladium: Steric Shielding versus Steric Attraction
  49. Through-Space Stabilization of an Imidazolium Cation by Aromatic Rings
  50. How Ionization Catalyzes Diels‐Alder Reactions
  51. Probing Noncovalent Interactions in [3,3]Metaparacyclophanes
  52. Corrigendum: Chemoselectivity of Tertiary Azides in Strain‐Promoted Alkyne–Azide Cycloadditions
  53. Reading and erasing of the phosphonium analogue of trimethyllysine by epigenetic proteins
  54. Polycyclic Aromatic Hydrocarbons (PAHs) in Interstellar Ices: A Computational Study into How the Ice Matrix Influences the Ionic State of PAH Photoproducts
  55. Rational design of iron catalysts for C–X bond activation
  56. B‐DNA Structure and Stability: The Role of Nucleotide Composition and Order
  57. Front Cover: B‐DNA Structure and Stability: The Role of Nucleotide Composition and Order (ChemistryOpen 2/2022)
  58. C(spn)−X (n=1–3) Bond Activation by Palladium
  59. B‐DNA Structure and Stability: The Role of Nucleotide Composition and Order
  60. Probing the Lewis Acidity of Boronic Acids through Interactions with Arene Substituents
  61. Clarifying notes on the bonding analysis adopted by the energy decomposition analysis
  62. Pericyclic reaction benchmarks: hierarchical computations targeting CCSDT(Q)/CBS and analysis of DFT performance
  63. Stability of alkyl carbocations
  64. How Solvation Influences the SN2 versus E2 Competition
  65. Cover Feature: The Chemical Bond: When Atom Size Instead of Electronegativity Difference Determines Trend in Bond Strength (Chem. Eur. J. 63/2021)
  66. The Chemical Bond: When Atom Size Instead of Electronegativity Difference Determines Trend in Bond Strength
  67. Radical Scavenging Potential of the Phenothiazine Scaffold: A Computational Analysis
  68. How Lewis Acids Catalyze Ene Reactions
  69. Switch From Pauli‐Lowering to LUMO‐Lowering Catalysis in Brønsted Acid‐Catalyzed Aza‐Diels‐Alder Reactions
  70. Origin of the α‐Effect in SN2 Reactions
  71. Origin of the α‐Effect in SN2 Reactions
  72. Inside Back Cover: Origin of the α‐Effect in SN2 Reactions (Angew. Chem. Int. Ed. 38/2021)
  73. Innenrücktitelbild: Origin of the α‐Effect in SN2 Reactions (Angew. Chem. 38/2021)
  74. Lewis Acid‐Catalyzed Diels‐Alder Reactions: Reactivity Trends across the Periodic Table
  75. 8 Energy decomposition analysis in the context of quantitative molecular orbital theory
  76. A Quantitative Molecular Orbital Perspective of the Chalcogen Bond
  77. Front Cover: A Quantitative Molecular Orbital Perspective of the Chalcogen Bond (4/2021)
  78. The Pauli Repulsion-Lowering Concept in Catalysis
  79. Cover Image
  80. Do Sulfonamides Interact with Aromatic Rings?
  81. Cover Feature: Not Carbon s–p Hybridization, but Coordination Number Determines C−H and C−C Bond Length (Chem. Eur. J. 24/2021)
  82. Not Carbon s–p Hybridization, but Coordination Number Determines C−H and C−C Bond Length
  83. The Gauche Effect in XCH2CH2X Revisited
  84. A Quantitative Molecular Orbital Perspective of the Chalcogen Bond
  85. Chalcogen bonds: Hierarchical ab initio benchmark and density functional theory performance study
  86. Bismuth Amides Mediate Facile and Highly Selective Pn–Pn Radical‐Coupling Reactions (Pn=N, P, As)
  87. Bismutamide als einfache Vermittler hochselektiver Pn−Pn‐Radikal‐Kupplungsreaktionen (Pn=N, P, As)
  88. How Metallylenes Activate Small Molecules
  89. Proton Transfer and SN2 Reactions as Steps of Fast Selenol and Thiol Oxidation in Proteins: A Model Molecular Study Based on GPx
  90. Front Cover: Proton Transfer and SN2 Reactions as Steps of Fast Selenol and Thiol Oxidation in Proteins: A Model Molecular Study Based on GPx (ChemPlusChem 4/2021)
  91. Cover Feature: How Oriented External Electric Fields Modulate Reactivity (Chem. Eur. J. 18/2021)
  92. How Oriented External Electric Fields Modulate Reactivity
  93. Cover Feature: Bifunctional Hydrogen Bond Donor‐Catalyzed Diels–Alder Reactions: Origin of Stereoselectivity and Rate Enhancement (Chem. Eur. J. 16/2021)
  94. Nature of Alkali‐ and Coinage‐Metal Bonds versus Hydrogen Bonds
  95. Bifunctional Hydrogen Bond Donor‐Catalyzed Diels–Alder Reactions: Origin of Stereoselectivity and Rate Enhancement
  96. On the Origin of Regioselectivity in Palladium‐Catalyzed Oxidation of Glucosides
  97. Dipolar repulsion in α-halocarbonyl compounds revisited
  98. How metallylenes activate small molecules
  99. The pnictogen bond: a quantitative molecular orbital picture
  100. Origin of asynchronicity in Diels–Alder reactions
  101. Chemical reactivity from an activation strain perspective
  102. The Hydrogenation Problem in Cobalt‐based Catalytic Hydroaminomethylation
  103. Proton Transfer and SN2 Reactions as Steps of Fast Selenol and Thiol Oxidation in Proteins: A Model Molecular Study Based on GPx
  104. The Nature of Nonclassical Carbonyl Ligands Explained by Kohn–Sham Molecular Orbital Theory
  105. A Unified Framework for Understanding Nucleophilicity and Protophilicity in the S N 2/E2 Competition
  106. A Unified Framework for Understanding Nucleophilicity and Protophilicity in the S N 2/E2 Competition
  107. SN2 versus E2 Competition of F–and PH2–Revisited
  108. Designing Rh(I)-Half-Sandwich Catalysts for Alkyne [2+2+2] Cycloadditions
  109. Probing Halogen−π versus CH−π Interactions in Molecular Balance
  110. Understanding the 1,3‐Dipolar Cycloadditions of Allenes
  111. N‐Heterocyclic Silylenes as Ligands in Transition Metal Carbonyl Chemistry: Nature of Their Bonding and Supposed Innocence
  112. A dual attack on the peroxide bond. The common principle of peroxidatic cysteine or selenocysteine residues
  113. Diastereoselective Synthesis of β-Lactams by Ligand-Controlled Stereodivergent Intramolecular Tsuji–Trost Allylation
  114. Regioselectivity of Epoxide Ring‐Openings via SN2 Reactions Under Basic and Acidic Conditions
  115. Front Cover: Through‐Space Polar‐π Interactions in 2,6‐Diarylthiophenols (ChemPhysChem 11/2020)
  116. Through‐Space Polar‐π Interactions in 2,6‐Diarylthiophenols
  117. Computationally Guided Molecular Design to Minimize the LE/CT Gap in D‐π‐A Fluorinated Triarylboranes for Efficient TADF via D and π‐Bridge Tuning
  118. Mechanism of biomolecular recognition of trimethyllysine by the fluorinated aromatic cage of KDM5A PHD3 finger
  119. Through‐Space Polar‐π Interactions in 2,6‐Diarylthiophenols
  120. Comparison of Molecular Recognition of Trimethyllysine and Trimethylthialysine by Epigenetic Reader Proteins
  121. How Alkali Cations Catalyze Aromatic Diels‐Alder Reactions
  122. Performance of TDDFT Vertical Excitation Energies of Core‐Substituted Naphthalene Diimides
  123. Ambident Nucleophilic Substitution: Understanding Non‐HSAB Behavior through Activation Strain and Conceptual DFT Analyses
  124. How Lewis Acids Catalyze Diels–Alder Reactions
  125. How Lewis Acids Catalyze Diels–Alder Reactions
  126. Ligand‐Mediated Regioselective Rhodium‐Catalyzed Benzotriazole–Allene Coupling: Mechanistic Exploration and Quantum Chemical Analysis
  127. Halogen Bonds in Ligand–Protein Systems: Molecular Orbital Theory for Drug Design
  128. Distortion‐Controlled Redshift of Organic Dye Molecules
  129. Understanding chemical reactivity using the activation strain model
  130. Origin of rate enhancement and asynchronicity in iminium catalyzed Diels–Alder reactions
  131. Toward Transition‐Metal‐Templated Construction of Arylated B4 Chains by Dihydroborane Dehydrocoupling
  132. Activation Strain Analyses of Counterion and Solvent Effects on the Ion‐Pair SN2 Reaction of and CH3Cl
  133. Steric Effects Dictate the Formation of Terminal Arylborylene Complexes of Ruthenium from Dihydroboranes
  134. Alkali Metal Cation Affinities of Neutral Maingroup-Element Hydrides across the Periodic Table
  135. Cover Feature: Dual Activation of Aromatic Diels–Alder Reactions (Chem. Eur. J. 42/2019)
  136. Dual Activation of Aromatic Diels–Alder Reactions
  137. Special Collection: Computational Chemistry
  138. Racemization and Deracemization through Intermolecular Redox Behaviour
  139. PyFrag 2019—Automating the exploration and analysis of reaction mechanisms
  140. How Dihalogens Catalyze Michael Addition Reactions
  141. Wie Dihalogene Michael‐Additionsreaktionen katalysieren
  142. Nucleophilic substitution at di- and triphosphates: leaving group ability of phosphate versus diphosphate
  143. para-Selective C–H Olefination of Aniline Derivatives via Pd/S,O-Ligand Catalysis
  144. Structural Distortion of Cycloalkynes Influences Cycloaddition Rates both by Strain and Interaction Energies
  145. Cover Feature: Structural Distortion of Cycloalkynes Influences Cycloaddition Rates both by Strain and Interaction Energies (Chem. Eur. J. 25/2019)
  146. Probing Through-Space Polar−π Interactions in 2,6-Diarylphenols
  147. Cover Feature: Half‐Sandwich Metal‐Catalyzed Alkyne [2+2+2] Cycloadditions and the Slippage Span Model (ChemistryOpen 2/2019)
  148. Diels-Alder reactivities of cycloalkenediones with tetrazine
  149. Cation affinities throughout the periodic table
  150. Hydride affinities of cationic maingroup-element hydrides across the periodic table
  151. Understanding the differences between iron and palladium in cross-coupling reactions
  152. Carbon monoxide insertion at a heavy p-block element: unprecedented formation of a cationic bismuth carbamoyl
  153. In My Element: Carbon
  154. Chemoselectivity of Tertiary Azides in Strain‐Promoted Alkyne‐Azide Cycloadditions
  155. Rational design of near-infrared absorbing organic dyes: Controlling the HOMO-LUMO gap using quantitative molecular orbital theory
  156. Half‐Sandwich Metal‐Catalyzed Alkyne [2+2+2] Cycloadditions and the Slippage Span Model
  157. Factors Controlling the Diels–Alder Reactivity of Hetero‐1,3‐Butadienes
  158. A methodology for the photocatalyzed radical trifluoromethylation of indoles: A combined experimental and computational study
  159. Elucidating the Trends in Reactivity of Aza‐1,3‐Dipolar Cycloadditions
  160. Highly Stable and Selective Tetrazines for the Coordination-Assisted Bioorthogonal Ligation with Vinylboronic Acids
  161. Arylic C–X Bond Activation by Palladium Catalysts: Activation Strain Analyses of Reactivity Trends
  162. Anion Recognition by Organometallic Calixarenes: Analysis from Relativistic DFT Calculations
  163. Group 9 Metallacyclopentadienes as Key Intermediates in [2+2+2] Alkyne Cyclotrimerizations. Insight from Activation Strain Analyses
  164. Nucleophilic Substitution (SN 2): Dependence on Nucleophile, Leaving Group, Central Atom, Substituents, and Solvent
  165. Front Cover: Nucleophilic Substitution (SN 2): Dependence on Nucleophile, Leaving Group, Central Atom, Substituents, and Solvent (ChemPhysChem 11/2018)
  166. Nucleophilic Substitution (SN 2): Dependence on Nucleophile, Leaving Group, Central Atom, Substituents, and Solvent
  167. Cover Feature: Ion‐Pair SN2 Reaction of OH− and CH3Cl: Activation Strain Analyses of Counterion and Solvent Effects (Chem. Asian J. 9/2018)
  168. Ion‐Pair SN2 Reaction of OH− and CH3Cl: Activation Strain Analyses of Counterion and Solvent Effects
  169. Nucleophilic Substitution in Solution: Activation Strain Analysis of Weak and Strong Solvent Effects
  170. Tuning Heterocalixarenes to Improve Their Anion Recognition: A Computational Approach
  171. Doppelte CH‐Aktivierung eines maskierten Bismutamid‐Kations
  172. Double CH Activation of a Masked Cationic Bismuth Amide
  173. Origins of the Endo and Exo Selectivities in Cyclopropenone, Iminocyclopropene, and Triafulvene Diels–Alder Cycloadditions
  174. Trifluoromethyl Vinyl Sulfide: A Building Block for the Synthesis of CF3S-Containing Isoxazolidines
  175. Recognition of shorter and longer trimethyllysine analogues by epigenetic reader proteins
  176. Glucose-nucleobase pairs within DNA: impact of hydrophobicity, alternative linking unit and DNA polymerase nucleotide insertion studies
  177. Regioselectivity of the Pauson–Khand reaction in single-walled carbon nanotubes
  178. How Mg2+ ions lower the SN2@P barrier in enzymatic triphosphate hydrolysis
  179. Nature and strength of chalcogen–π bonds
  180. Oxidation of organic diselenides and ditellurides by H2O2for bioinspired catalyst design
  181. Role of the Chalcogen (S, Se, Te) in the Oxidation Mechanism of the Glutathione Peroxidase Active Site
  182. Front Cover: Role of the Chalcogen (S, Se, Te) in the Oxidation Mechanism of the Glutathione Peroxidase Active Site (ChemPhysChem 21/2017)
  183. Integrative Theory/Experiment‐Driven Exploration of a Multicomponent Reaction towards Imidazoline‐2‐(thi)ones
  184. Role of the Chalcogen (S, Se, Te) in the Oxidation Mechanism of the Glutathione Peroxidase Active Site
  185. Cover Feature: Alkali Metal Cation Affinities of Anionic Main Group‐Element Hydrides Across the Periodic Table (Chem. Asian J. 19/2017)
  186. Alkali Metal Cation Affinities of Anionic Main Group‐Element Hydrides Across the Periodic Table
  187. Macrocycles All Aflutter: Substitution at an Allylic Center Reveals the Conformational Dynamics of [13]-Macrodilactones
  188. Kekulene: Structure, stability and nature of H•••H interactions in large PAHs
  189. Stabilization of 2,6-Diarylanilinum Cation by Through-Space Cation−π Interactions
  190. Regio- and Stereoselectivity in 1,3-Dipolar Cycloadditions: Activation Strain Analyses for Reactions of Hydrazoic Acid with Substituted Alkenes
  191. Role of Orbital Interactions and Activation Strain (Distortion Energies) on Reactivities in the Normal and Inverse Electron-Demand Cycloadditions of Strained and Unstrained Cycloalkenes
  192. Innentitelbild: Das Distortion/Interaction‐Activation‐Strain‐Modell zur Analyse von Reaktionsgeschwindigkeiten (Angew. Chem. 34/2017)
  193. Inside Cover: Analyzing Reaction Rates with the Distortion/Interaction‐Activation Strain Model (Angew. Chem. Int. Ed. 34/2017)
  194. Cesium's Off‐the‐Map Valence Orbital
  195. Cesium's Off‐the‐Map Valence Orbital
  196. Analyzing Reaction Rates with the Distortion/Interaction‐Activation Strain Model
  197. Das Distortion/Interaction‐Activation‐Strain‐Modell zur Analyse von Reaktionsgeschwindigkeiten
  198. Deracemization of a Racemic Allylic Sulfoxide Using Viedma Ripening
  199. Inside Back Cover: Understanding the Reactivity of Ion-Encapsulated Fullerenes (Chem. Eur. J. 46/2017)
  200. Understanding the Reactivity of Ion-Encapsulated Fullerenes
  201. Nature of the Ru−NO Coordination Bond: Kohn-Sham Molecular Orbital and Energy Decomposition Analysis
  202. Asymmetric identity S N 2 transition states: Nucleophilic substitution at α-substituted carbon and silicon centers
  203. Activation Strain Analysis of SN2 Reactions at C, N, O, and F Centers
  204. Eight-coordinate fluoride in a silicate double-four-ring
  205. B-DNA model systems in non-terran bio-solvents: implications for structure, stability and replication
  206. How the electron-deficient cavity of heterocalixarenes recognizes anions: insights from computation
  207. Front cover
  208. Silylene-Induced Reduction of [Mn2(CO)10]: Formation of a Five-Coordinate Silicon(IV) Complex with an O-Bound [(OC)4Mn=Mn(CO)4]2-Ligand
  209. Enhanced π-Back-Donation as a Way to Higher Coordination Numbers in d10[M(NHC)n] Complexes: A DFT Study
  210. Formation of a Trifluorophosphane Platinum(II) Complex by P−F Bond Activation of Phosphorus Pentafluoride with a Pt0 Complex
  211. Inside Cover: Deeper Insight into the Diels-Alder Reaction through the Activation Strain Model (Chem. Asian J. 23/2016)
  212. 4th International Conference on Chemical Bonding
  213. Deeper Insight into the Diels-Alder Reaction through the Activation Strain Model
  214. New Insights into the Reactivity of Cisplatin with Free and Restrained Nucleophiles: Microsolvation Effects and Base Selectivity in Cisplatin–DNA Interactions
  215. Stereoselective Synthesis of 1-Tuberculosinyl Adenosine; a Virulence Factor of Mycobacterium tuberculosis
  216. Understanding the Oxidative Addition of σ-Bonds to Group 13 Compounds
  217. Glucose-Nucleobase Pseudo Base Pairs: Biomolecular Interactions within DNA
  218. Glucose–Nucleobase Pseudo Base Pairs: Biomolecular Interactions within DNA
  219. Evidence for a chemical clock in oscillatory formation of UiO-66
  220. Addition–Elimination or Nucleophilic Substitution? Understanding the Energy Profiles for the Reaction of Chalcogenolates with Dichalcogenides
  221. Synthesis and Hydrolysis of Alkoxy(aminoalkyl)diorganylsilanes of the Formula Type R2(RO)Si(CH2)nNH2 (R = Alkyl, n = 1–3): A Systematic Experimental and Computational Study
  222. Reaction Mechanism and Regioselectivity of the Bingel-Hirsch Addition of Dimethyl Bromomalonate to La@C 2v -C82
  223. Alkali Metal Cation versus Proton and Methyl Cation Affinities: Structure and Bonding Mechanism
  224. Inside Back Cover: Ion-Pair SN 2 Substitution: Activation Strain Analyses of Counter-Ion and Solvent Effects (Chem. Eur. J. 13/2016)
  225. Ion-Pair SN 2 Substitution: Activation Strain Analyses of Counter-Ion and Solvent Effects
  226. Inside Cover: Source of Cooperativity in Halogen-Bonded Haloamine Tetramers (ChemPhysChem 4/2016)
  227. (4 + 2) and (2 + 2) Cycloadditions of Benzyne to C60 and Zig-Zag Single-Walled Carbon Nanotubes: The Effect of the Curvature
  228. Source of Cooperativity in Halogen-Bonded Haloamine Tetramers
  229. Editorial for PCCP themed issue “Developments in Density Functional Theory”
  230. Reactivity and Selectivity of Bowl-Shaped Polycyclic Aromatic Hydrocarbons: Relationship to C60
  231. Chemical basis for the recognition of trimethyllysine by epigenetic reader proteins
  232. Substituent effects on the optical properties of naphthalenediimides: A frontier orbital analysis across the periodic table
  233. Reactivity of the Donor‐Stabilized Silylenes [iPrNC(Ph)NiPr]2Si and [iPrNC(NiPr2)NiPr]2Si: Activation of CO2 and CS2
  234. Inside Back Cover: Selective C−H and C−C Bond Activation: Electronic Regimes as a Tool for Designing d10MLnCatalysts (Chem. Asian J. 10/2015)
  235. Cover Picture: Factors Controlling β‐Elimination Reactions in Group 10 Metal Complexes (Chem. Eur. J. 41/2015)
  236. Innenrücktitelbild: Six‐Coordinate Group 13 Complexes: The Role of d Orbitals and Electron‐Rich Multi‐Center Bonding (Angew. Chem. 41/2015)
  237. Inside Back Cover: Six‐Coordinate Group 13 Complexes: The Role of d Orbitals and Electron‐Rich Multi‐Center Bonding (Angew. Chem. Int. Ed. 41/2015)
  238. Role of Steric Attraction and Bite-Angle Flexibility in Metal-Mediated C–H Bond Activation
  239. Factors Controlling β-Elimination Reactions in Group 10 Metal Complexes
  240. Stable Four‐Coordinate Guanidinatosilicon(IV) Complexes with SiN3El Skeletons (El=S, Se, Te) and SiEl Double Bonds
  241. Six‐Coordinate Group 13 Complexes: The Role of d Orbitals and Electron‐Rich Multi‐Center Bonding
  242. Six‐Coordinate Group 13 Complexes: The Role of d Orbitals and Electron‐Rich Multi‐Center Bonding
  243. Selective C−H and C−C Bond Activation: Electronic Regimes as a Tool for Designing d10MLnCatalysts
  244. Computational (DFT) and Experimental (EXAFS) Study of the Interaction of [Ir(IMes)(H)2(L)3] with Substrates and Co‐substrates Relevant for SABRE in Dilute Systems
  245. The activation strain model and molecular orbital theory
  246. Inside Back Cover: Understanding the Reactivity of Endohedral Metallofullerenes: C78 versus Sc3N@C78 (Chem. Eur. J. 15/2015)
  247. Understanding the Reactivity of Endohedral Metallofullerenes: C78versus Sc3N@C78
  248. Is There a Need to Discuss Atomic Orbital Overlap When Teaching Hydrogen–Halide Bond Strength and Acidity Trends in Organic Chemistry?
  249. Activation-Strain Analysis Reveals Unexpected Origin of Fast Reactivity in Heteroaromatic Azadiene Inverse-Electron-Demand Diels–Alder Cycloadditions
  250. Bite-angle bending as a key for understanding group-10 metal reactivity of d10-[M(NHC)2] complexes with sterically modest NHC ligands
  251. Direct detection of the mercury–nitrogen bond in the thymine–HgII–thymine base-pair with 199Hg NMR spectroscopy
  252. Highly accelerated inverse electron-demand cycloaddition of electron-deficient azides with aliphatic cyclooctynes
  253. Reactions of the Donor-Stabilized Silylene Bis[N,N′-diisopropyl-benzamidinato(−)]silicon(II) with Brønsted Acids
  254. Controlling the oxidative addition of aryl halides to Au(I)
  255. Origin of Reactivity Trends of Noble Gas Endohedral Fullerenes Ng 2 @C 60 (Ng = He to Xe)
  256. Inside Cover: New Concepts for Designing d10-M(L)nCatalysts: d Regime, s Regime and Intrinsic Bite-Angle Flexibility (Chem. Eur. J. 36/2014)
  257. Bis[N,N′-diisopropylbenzamidinato(−)]silicon(II): Lewis Acid/Base Reactions with Triorganylboranes
  258. Thermodynamics of the CuII μ-Thiolate and CuI Disulfide Equilibrium: A Combined Experimental and Theoretical Study
  259. New Concepts for Designing d10-M(L)nCatalysts: d Regime, s Regime and Intrinsic Bite-Angle Flexibility
  260. Rationalizing the Structural Variability of the Exocyclic Amino Groups in Nucleobases and Their Metal Complexes: Cytosine and Adenine
  261. Top-Beiträge aus unseren Schwesterzeitschriften: Angew. Chem. 47/2015
  262. Effects of the protonation state in the interaction of an HIV-1 reverse transcriptase (RT) amino acid, Lys101, and a non nucleoside RT inhibitor, GW420867X
  263. The many faces of halogen bonding: a review of theoretical models and methods
  264. Silicon α-Effect: A Systematic Experimental and Computational Study of the Hydrolysis of C α - and C γ -Functionalized Alkoxytriorganylsilanes of the Formula Type ROSiMe 2 (CH 2 ) n X (R = Me, Et; n = 1, 3; X = Functional Group)
  265. Diastereoselective One-Pot Synthesis of Tetrafunctionalized 2-Imidazolines
  266. The Donor-Stabilized Silylene Bis[N,N′-diisopropylbenzamidinato(−)]silicon(II): Synthesis, Electronic Structure, and Reactivity
  267. Theoretical and Experimental Study of Charge Transfer through DNA: Impact of Mercury Mediated T-Hg-T Base Pair
  268. The EDA Perspective of Chemical Bonding
  269. Stabilisation of 2,6-Diarylpyridinium Cation by Through-Space Polar-π Interactions
  270. Ene-ene-yne Reactions: Activation Strain Analysis and the Role of Aromaticity
  271. Understanding E2 versus SN 2 Competition under Acidic and Basic Conditions
  272. The substituent effect on benzene dications
  273. The activation strain model and molecular orbital theory: understanding and designing chemical reactions
  274. B-DNA structure and stability: the role of hydrogen bonding, π–π stacking interactions, twist-angle, and solvation
  275. d10-ML2 Complexes: Structure, Bonding, and Catalytic Activity
  276. ChemInform Abstract: Reactivity in Nucleophilic Vinylic Substitution (SNV): SNVπversus SNVσMechanistic Dichotomy.
  277. Origin of the “endo rule” in Diels-Alder reactions
  278. Indenyl Effect Due to Metal Slippage? Computational Exploration of Rhodium‐Catalyzed Acetylene [2+2+2] Cyclotrimerization
  279. How the disulfide conformation determines the disulfide/thiol redox potential
  280. Back Cover: In Silico Design of Heteroaromatic Half-Sandwich Rh I Catalysts for Acetylene [2+2+2] Cyclotrimerization: Evidence of a Reverse Indenyl Effect (Chem. Eur. J. 40/2013)
  281. Neutral Six-Coordinate and Cationic Five-Coordinate Silicon(IV) Complexes with Two Bidentate Monoanionic N , S -Pyridine-2-thiolato(−) Ligands
  282. Normal-to-Abnormal Rearrangement and NHC Activation in Three-Coordinate Iron(II) Carbene Complexes
  283. Reactivity in Nucleophilic Vinylic Substitution (S N V):S N Vπ versus S N Vσ Mechanistic Dichotomy
  284. In Silico Design of Heteroaromatic Half-Sandwich RhICatalysts for Acetylene [2+2+2] Cyclotrimerization: Evidence of a Reverse Indenyl Effect
  285. Aggregation and Cooperative Effects in the Aldol Reactions of Lithium Enolates
  286. B-DNA Structure and Stability as Function of Nucleic Acid Composition: Dispersion-Corrected DFT Study of Dinucleoside Monophosphate Single and Double Strands
  287. Benchmark Study on the Smallest Bimolecular Nucleophilic Substitution Reaction: H−+CH4 ® CH4+H−
  288. Erratum: Inter- and intramolecular dispersion interactions
  289. Self-Assembly of N 3 -Substituted Xanthines in the Solid State and at the Solid–Liquid Interface
  290. Cover Picture: Nonlinear d10 -ML2 Transition-Metal Complexes (ChemistryOpen 3/2013)
  291. Nonlinear d10 -ML2 Transition-Metal Complexes
  292. Nonlinear d10 -ML2 Transition-Metal Complexes
  293. ChemInform Abstract: X2Y2Isomers: Tuning Structure and Relative Stability Through Electronegativity Differences (X: H, Li, Na, F, Cl, Br, I; Y: O, S, Se, Te).
  294. Why Do Cycloaddition Reactions Involving C60Prefer [6,6] over [5,6] Bonds?
  295. Stereodivergent S N 2@P Reactions of Borane Oxazaphospholidines: Experimental and Theoretical Studies
  296. X 2 Y 2 Isomers: Tuning Structure and Relative Stability through Electronegativity Differences (X = H, Li, Na, F, Cl, Br, I; Y = O, S, Se, Te)
  297. Supramolecular H-bonded porous networks at surfaces: exploiting primary and secondary interactions in a bi-component melamine–xanthine system
  298. Symmetrical P4 cleavage at cobalt half sandwich complexes [(η5-C5H5)Co(L)] (L = CO, NHC) – a computational case study on the mechanism of symmetrical P4 degradation to P2 ligands
  299. Supramolecular Ring Structures of 7-Methylguanine: A Computational Study of Its Self-assembly and Anion Binding
  300. Complexes of 4-substituted phenolates with HF and HCN: Energy decomposition and electronic structure analyses of hydrogen bonding
  301. A computational study on the reactivity enhancement in the free radical polymerization of alkyl α‐hydroxymethacrylate and acrylate derivatives
  302. Solvent effects on hydrogen bonds in Watson–Crick, mismatched, and modified DNA base pairs
  303. Cover Picture: Type-I Dyotropic Reactions: Understanding Trends in Barriers (Chem. Eur. J. 39/2012)
  304. Type-I Dyotropic Reactions: Understanding Trends in Barriers
  305. Chemical Shifts in Nucleic Acids Studied by Density Functional Theory Calculations and Comparison with Experiment
  306. Neutral Pentacoordinate Halogeno- and Pseudohalogenosilicon(IV) Complexes with a Tridentate Dianionic O,N,O or N,N,O Ligand: Synthesis and Structural Characterization in the Solid State and in Solution
  307. Halogen Bonding versus Hydrogen Bonding: A Molecular Orbital Perspective
  308. The Role of Protein Plasticity in Computational Rationalization Studies on Regioselectivity in Testosterone Hydroxylation by Cytochrome P450 BM3 Mutants
  309. Theoretical Study of the Structure and Bonding in ThC 2 and UC 2
  310. On the origin of the steric effect
  311. Synthesis and structural characterisation of neutral pentacoordinate silicon(iv) complexes with a tridentate dianionic N,N,S chelate ligand
  312. Guanine, Xanthine and Uric Acid Assemblies: Comparative Theoretical and Experimental Studies
  313. A new DFT functional based on spin-states and SN2 barriers
  314. Alder-ene reaction: Aromaticity and activation-strain analysis
  315. Organomagnesium clusters: Structure, stability, and bonding in archetypal models
  316. Silver(I)-mediated Hoogsteen-type base pairs
  317. Telomere Structure and Stability: Covalency in Hydrogen Bonds, Not Resonance Assistance, Causes Cooperativity in Guanine Quartets
  318. tert -Butyl Cation Affinities of Maingroup-Element Hydrides: Effect of Methyl Substituents at the Protophilic Center
  319. Remote Communication in a DNA-Based Nanoswitch
  320. Alkali-Metal-Supported Bismuth Polyhedra—Principles and Theoretical Studies
  321. Contiguous Metal‐Mediated Base Pairs Comprising Two Ag I Ions
  322. Regioselectivity in Electrophilic Aromatic Substitution: Insights from Interaction Energy Decomposition Potentials
  323. Aromaticity and Activation Strain Analysis of [3 + 2] Cycloaddition Reactions between Group 14 Heteroallenes and Triple Bonds
  324. Chimeric GNA/DNA metal-mediated base pairs
  325. Selectivity in DNA replication. Interplay of steric shape, hydrogen bonds, π-stacking and solvent effects
  326. A donor-functionalized, silyl-substituted pentadienyllithium: structural insight from experiment and theory
  327. Multiscale modelling
  328. Radon hydrides: structure and bonding
  329. All-metal aromatic clusters M42− (M = B, Al, and Ga). Are π-electrons distortive or not?
  330. Steric nature of the bite angle. A closer and a broader look
  331. 3-Substituted xanthines as promising candidates for quadruplex formation: computational, synthetic and analytical studies
  332. Neutral and positively charged new purine tetramer structures: a computational study of xanthine and uric acid derivatives
  333. Inter‐ and intramolecular dispersion interactions
  334. Tandem mass spectrometry of silver-adducted ferrocenyl catalyst complexes
  335. ChemInform Abstract: The Activation Strain Model of Chemical Reactivity
  336. Steric effects on alkyl cation affinities of maingroup-element hydrides
  337. Density Functional Calculations of E2 and SN2 Reactions: Effects of the Choice of Method, Algorithm, and Numerical Accuracy
  338. Methyl Cation Affinities of Neutral and Anionic Maingroup-Element Hydrides: Trends Across the Periodic Table and Correlation with Proton Affinities
  339. ChemInform Abstract: Scope and Limitations of an Efficient Four-Component Reaction for Dihydropyridin-2-ones.
  340. ChemInform Abstract: Understanding Reactivity with Kohn-Sham Molecular Orbital Theory: E2-SN2 Mechanistic Spectrum and Other Concepts
  341. ChemInform Abstract: 1,4-Diphosphabutadiyne: A Realistic Target for Synthesis? A Theoretical Investigation of C2P2, C2N2, [Cr(CO)5PCCP], and [(CO)5Cr(PCCP)Cr(CO)5].
  342. ChemInform Abstract: The Short N-F Bond in N2F+ and How Pauli Repulsion Influences Bond Lengths. Theoretical Study of N2X+, and NF3X+ and NH3X+ (X: F, H)
  343. Stacked DNA-base quartets: Structure, chemistry and computational intricacies
  344. Comment on “The Interplay between Steric and Electronic Effects in SN2 Reactions”
  345. E2 and S N 2 Reactions of X − + CH 3 CH 2 X (X = F, Cl); an ab Initio and DFT Benchmark Study
  346. Catalyst selection based on intermediate stability measured by mass spectrometry
  347. Scope and Limitations of an Efficient Four-Component Reaction for Dihydropyridin-2-ones
  348. C(CN)5–: transition state or intermediate?
  349. The activation strain model of chemical reactivity
  350. Halogen versus halide electronic structure
  351. Double Group Transfer Reactions: Role of Activation Strain and Aromaticity in Reaction Barriers
  352. A chemist's guide to valence bond theory
  353. Homolytic versus Heterolytic Dissociation of Alkalimetal Halides: The Effect of Microsolvation
  354. Differential stabilization of adenine quartets by anions and cations
  355. Adenine versus guanine quartets in aqueous solution: dispersion-corrected DFT study on the differences in π-stacking and hydrogen-bonding behavior
  356. A new all-round density functional based on spin states and SN2 barriers
  357. Alkali Metal Complexes of Silyl-Substituted ansa -(Tris)allyl Ligands: Metal-, Co-Ligand- and Substituent-Dependent Stereochemistry
  358. Hypervalent Carbon Atom: “Freezing” the SN2 Transition State
  359. Hypervalent Carbon Atom: “Freezing” the SN2 Transition State
  360. Bonding of Xenon Hydrides
  361. Switching between OPTX and PBE exchange functionals
  362. Structural Interpretation of J Coupling Constants in Guanosine and Deoxyguanosine: Modeling the Effects of Sugar Pucker, Backbone Conformation, and Base Pairing
  363. Bond activation by group-11 transition-metal cations1
  364. The Steric Nature of the Bite Angle
  365. Dihydrogen Bonding: Donor-Acceptor Bonding (AH⋅⋅⋅HX) versus the H2Molecule (AH2X)
  366. A Ditopic Ion‐Pair Receptor Based on Stacked Nucleobase Quartets
  367. A Ditopic Ion‐Pair Receptor Based on Stacked Nucleobase Quartets
  368. ChemInform Abstract: Tricarbonylchromium Complexes of [5]- and [6]-Metacyclophane: An Experimental and Theoretical Study.
  369. A Helicoid Ferrocene
  370. Bonding capabilities of imidazol-2-ylidene ligands in group-10 transition-metal chemistry
  371. Trends and anomalies in H–AHn and CH3–AHn bond strengths (AHn = CH3, NH2, OH, F)
  372. Stepwise walden inversion in nucleophilic substitution at phosphorus
  373. π-Electronic communication through mono and multinuclear gold(I) complexes
  374. Rare Tautomers of 1‐Methyluracil and 1‐Methylthymine: Tuning Relative Stabilities through Coordination to PtII Complexes
  375. Aromaticity and Antiaromaticity in 4-, 6-, 8-, and 10-Membered Conjugated Hydrocarbon Rings†
  376. Tricarbonylchromium complexes of [5]- and [6]metacyclophane: an experimental and theoretical study
  377. The Grignard Reagent Formation Reaction of 2-Chloro-1,1,1-triphenylethane Revisited
  378. Nucleophilicity and Leaving-Group Ability in Frontside and Backside S N 2 Reactions
  379. Role of the variable active site residues in the function of thioredoxin family oxidoreductases
  380. Attraktiv und überzeugend
  381. Attractive and Convincing
  382. Frontside versus Backside SN2 Substitution at Group 14 Atoms: Origin of Reaction Barriers and Reasons for Their Absence
  383. Hypervalent versus Nonhypervalent Carbon in Noble-Gas Complexes
  384. Intercalation of Daunomycin into Stacked DNA Base Pairs. DFT Study of an Anticancer Drug
  385. Linkage Isomerism of Nitriles in Rhodium Half-Sandwich Metallacycles
  386. Bonding of Imidazol-2-ylidene Ligands in Nickel Complexes
  387. Reaction Coordinates and the Transition-Vector Approximation to the IRC
  388. E2 and S N 2 Reactions of X − + CH 3 CH 2 X (X = F, Cl); an ab Initio and DFT Benchmark Study
  389. Watson-crick base pairs with thiocarbonyl groups: How sulfur changes the hydrogen bonds in DNA
  390. Role of s−p Orbital Mixing in the Bonding and Properties of Second-Period Diatomic Molecules
  391. Mechanism of Thioredoxin-Catalyzed Disulfide Reduction. Activation of the Buried Thiol and Role of the Variable Active-Site Residues
  392. Nucleophilic Substitution at C, Si and P: How Solvation Affects the Shape of Reaction Profiles
  393. Nucleophilic Substitution at C, Si and P: How Solvation Affects the Shape of Reaction Profiles (Eur. J. Org. Chem. 4/2008)
  394. Cover Picture: Hypervalent Silicon versus Carbon: Ball-in-a-Box Model (Chem. Eur. J. 3/2008)
  395. Hypervalent Silicon versus Carbon: Ball-in-a-Box Model
  396. Hydrogen bonding of 3- and 5-methyl-6-aminouracil with natural DNA bases
  397. Aromaticity in Heterocyclic and Inorganic Benzene Analogues
  398. Nucleophilic Substitution at Phosphorus Centers (SN2@P)
  399. Aromaticity: Molecular-Orbital Picture of an Intuitive Concept
  400. QUILD: QUantum‐regions interconnected by local descriptions
  401. Hypervalence and the delocalizing versus localizing propensities of H 3 – , Li 3 – , CH 5 – and SiH 5 –
  402. π-π stacking tackled with density functional theory
  403. Proton Affinities in Water of Maingroup‐Element Hydrides – Effects of Hydration and Methyl Substitution
  404. Aromaticity: Molecular-Orbital Picture of an Intuitive Concept
  405. Cover Picture: Aromaticity: Molecular-Orbital Picture of an Intuitive Concept (Chem. Eur. J. 22/2007)
  406. Cyclotrimerization Reactions Catalyzed by Rhodium(I) Half-Sandwich Complexes:  A Mechanistic Density Functional Study
  407. Outer valence orbital response to proton positions in prototropic tautomers of adenine
  408. Transition-State Energy and Position along the Reaction Coordinate in an Extended Activation Strain Model
  409. Table Salt and Other Alkali Metal Chloride Oligomers:  Structure, Stability, and Bonding
  410. Didehydrophenanthrenes:  Structure, Singlet−Triplet Splitting, and Aromaticity
  411. Energy landscapes of nucleophilic substitution reactions: A comparison of density functional theory and coupled cluster methods
  412. Nucleophilic Substitution at Silicon (S N 2@Si) via a Central Reaction Barrier
  413. Catalytic Carbon−Halogen Bond Activation:  Trends in Reactivity, Selectivity, and Solvation
  414. Conformational Behavior of Basic Monomeric Building Units of Glycosaminoglycans:  Isolated Systems and Solvent Effect
  415. Polycyclic Benzenoids:  Why Kinked is More Stable than Straight
  416. Trapping of the highly strained [5](2,4)quinolinophane system
  417. Kohn-Sham Density Functional Theory: Predicting and Understanding Chemistry
  418. Highly polar bonds and the meaning of covalency and ionicity—structure and bonding of alkali metal hydride oligomers
  419. General Discussion
  420. General Discussion
  421. PyFrag—Streamlining your reaction path analysis
  422. Orbital Overlap and Chemical Bonding
  423. Marcel Swart, Matthias Bickelhaupt, Optimization of strong and weak coordinates, International Journal of Quantum Chemistry (2006) 106(12), 2536–2544.
  424. Oxidative addition to main group versus transition metals: Insights from the Activation Strain model
  425. Nanoswitches Based on DNA Base Pairs: Why Adenin–Thymine is Less Suitable than Guanine–Cytosine
  426. Performance of various density functionals for the hydrogen bonds in DNA base pairs
  427. Nucleophilic Substitution at Phosphorus (SN2@P):  Disappearance and Reappearance of Reaction Barriers
  428. Oxidative Addition versus Dehydrogenation of Methane, Silane, and Heavier AH 4 Congeners Reacting with Palladium
  429. Proton affinities of maingroup‐element hydrides and noble gases: Trends across the periodic table, structural effects, and DFT validation
  430. Covalency in Highly Polar Bonds. Structure and Bonding of Methylalkalimetal Oligomers (CH 3 M) n (M = Li−Rb; n = 1, 4)
  431. [η2-8-(tert-Butylimino)-1-naphthyl]bis(η5-cyclopentadienyl)titanium(IV)
  432. Oxidative Addition of Hydrogen Halides and Dihalogens to Pd. Trends in Reactivity and Relativistic Effects
  433. Supramolecular Switches Based on the Guanine–Cytosine (GC) Watson–Crick Pair: Effect of Neutral and Ionic Substituents
  434. Bonding in Methylalkalimetals (CH 3 M) n (M = Li, Na, K; n = 1, 4). Agreement and Divergences between AIM and ELF Analyses †
  435. Hydrogen–Hydrogen Bonding in Planar Biphenyl, Predicted by Atoms-In-Molecules Theory, Does Not Exist
  436. A Model of the Chemical Bond Must Be Rooted in Quantum Mechanics, Provide Insight, and Possess Predictive Power
  437. Theoretical study of structure, pKa, lipophilicity, solubility, absorption, and polar surface area of some centrally acting antihypertensives
  438. Oxidative Addition of the Chloromethane C−Cl Bond to Pd, an ab Initio Benchmark and DFT Validation Study
  439. Adenine Tautomers:  Relative Stabilities, Ionization Energies, and Mismatch with Cytosine
  440. α-Stabilisierung von Carbanionen: Fluor übertrifft die schwereren Halogene
  441. α-Stabilization of Carbanions: Fluorine Is More Effective than the Heavier Halogens
  442. Structure and bonding of methyl alkali metal molecules
  443. Optimization of strong and weak coordinates
  444. Watson–Crick hydrogen bonds: nature and role in DNA replication
  445. Orbital interactions and charge redistribution in weak hydrogen bonds: Watson-Crick GC mimic involving CH proton donor and F proton acceptor groups
  446. Covalentversus ionic bonding in alkalimetal fluoride oligomers
  447. Proton Affinities of Anionic Bases:  Trends Across the Periodic Table, Structural Effects, and DFT Validation
  448. High-resolution infrared spectroscopy of the charge-transfer complex [Ar–N2]+∙: A combined experimental/theoretical study
  449. Oxidative Addition of the Fluoromethane C−F Bond to Pd. An ab Initio Benchmark and DFT Validation Study
  450. Absolute Rates of Hole Transfer in DNA
  451. Multicomponent Synthesis of 2‐Imidazolines.
  452. Oxidative addition of the ethane CC bond to Pd. An ab initio benchmark and DFT validation study
  453. (μ2-η2-2-tert-Butylethyn-1-yl)(μ2-chloro)bis{[bis(η5-cyclopentadienyl)dimethylsilane]titanium}
  454. DFT benchmark study for the oxidative addition of CH4 to Pd. Performance of various density functionals
  455. Substituent Effects on Hydrogen Bonding in Watson–Crick Base Pairs. A Theoretical Study
  456. Activation of C–H, C–C and C–I bonds by Pd and cis-Pd(CO)2I2. Catalyst–substrate adaptation
  457. Multicomponent Synthesis of 2-Imidazolines
  458. Fragment-oriented design of catalysts based on the activation strain model
  459. Activation of H−H, C−H, C−C and C−Cl Bonds by Pd and PdCl - . Understanding Anion Assistance in C−X Bond Activation
  460. Ab initio and DFT benchmark study for nucleophilic substitution at carbon (SN2@C) and silicon (SN2@Si)
  461. Hydrogen Bonds of RNA Are Stronger than Those of DNA, but NMR Monitors Only Presence of Methyl Substituent in Uracil/Thymine
  462. Ab initio benchmark study for the oxidative addition of CH4 to Pd: Importance of basis-set flexibility and polarization
  463. Activation of H−H, C−H, C−C, and C−Cl Bonds by Pd(0). Insight from the Activation Strain Model
  464. The rotation barrier in ethane
  465. Hydrogen Bonding in Mimics of Watson–Crick Base Pairs Involving CH Proton Donor and F Proton Acceptor Groups: A Theoretical Study
  466. (μ‐Methylene)bis(methylzirconocene): Preparation, Molecular Structure, and Thermal Disproportionation
  467. In Quest of the Double Rotaxane Formation of the Bis(coronand) (1,5),(2,4)‐Durenetetrayl‐bis(18‐crown‐5) with Organomagnesium Compounds
  468. Charge transport in columnar stacked triphenylenes: Effects of conformational fluctuations on charge transfer integrals and site energies
  469. Mapping the Sites for Selective Oxidation of Guanines in DNA
  470. The Case for Steric Repulsion Causing the Staggered Conformation of Ethane
  471. The Case for Steric Repulsion Causing the Staggered Conformation of Ethane
  472. Book Review: Valence Bond Methods-Theory and Applications. By Gordon A. Gallup
  473. Orbital interactions and charge redistribution in weak hydrogen bonds: The Watson–Crick AT mimic adenine-2,4-difluorotoluene
  474. Buchbesprechung: Essentials of Computational Chemistry Theories and Models. Von Christopher J. Cramer
  475. Book Review: Essentials of Computational Chemistry Theories and Models. By Christopher J. Cramer
  476. Voronoi deformation density (VDD) charges: Assessment of the Mulliken, Bader, Hirshfeld, Weinhold, and VDD methods for charge analysis
  477. Tackling DNA with Density Functional Theory: Development and Application of Parallel and Order- N DFT Methods
  478. Orbitalwechselwirkungen in starken und schwachen Wasserstoffbrücken sind essentiell für die DNA-Replikation Wir danken der Stiftung Nationale Computerfaciliteiten (NCF) der Nederlandse Organisatie voor Wetenschappelijk Onderzoek (NWO) für finanzielle U...
  479. Orbital Interactions in Strong and Weak Hydrogen Bonds are Essential for DNA Replication We thank the National Research School Combination—Catalysis (NRSCC) for a postdoctoral fellowship for C.F.G. and the National Computer Facilities (NCF) foundation ...
  480. Orbital Interactions in Hydrogen Bonds Important for Cohesion in Molecular Crystals and Mismatched Pairs of DNA Bases
  481. The Short N−F Bond in N 2 F + and How Pauli Repulsion Influences Bond Lengths. Theoretical Study of N 2 X + , NF 3 X + , and NH 3 X + (X = F, H)
  482. Buchbesprechung: Computational Chemistry. A Practical Guide for Applying Techniques to Real World Problems. Von David Young
  483. Book Review: Computational Chemistry. A Practical Guide for Applying Techniques to Real World Problems. By David Young
  484. Oxidative addition of Pd to C–H, C–C and C–Cl bonds: Importance of relativistic effects in DFT calculations
  485. ChemInform Abstract: (Ph4P)S6 - A Compound Containing the Cyclic Radical Anion S6×-.
  486. Base-induced 1,4-elimination:Insights from theory and mass spectrometry
  487. Chemistry with ADF
  488. (Ph4P)S6 – eine Verbindung mit dem cyclischen Radikalanion S6.−
  489. (Ph4P)S6—A Compound Containing the Cyclic Radical Anion S6.
  490. (Ph4P)S6—A Compound Containing the Cyclic Radical Anion S6.−
  491. Structure and Bonding of Transition Metal−Boryl Compounds. Theoretical Study of [(PH 3 ) 2 (CO)ClOs−BR 2 ] and [(PH 3 ) 2 (CO) 2 ClOs−BR 2 ] (BR 2 = BH 2 , BF 2 , B(OH) 2 , B(OCHCHO), Bcat) †
  492. The Nature of the Transition Metal−Carbonyl Bond and the Question about the Valence Orbitals of Transition Metals. A Bond-Energy Decomposition Analysis of TM(CO) 6 q (TM q = Hf 2 - , Ta - , W, Re + , Os 2+ , Ir 3+ ) †
  493. Hydrogen Bonding in DNA Base Pairs:  Reconciliation of Theory and Experiment
  494. Reviews in Computational Chemistry
  495. The Nature of the Hydrogen Bond in DNA Base Pairs: The Role of Charge Transfer and Resonance Assistance
  496. Ladungstransfer und molekulare Umgebung sind verantwortlich für Eigenschaften von Wasserstoffbrücken in DNA-Basenpaaren
  497. Charge Transfer and Environment Effects Responsible for Characteristics of DNA Base Pairing
  498. Charge Transfer and Environment Effects Responsible for Characteristics of DNA Base Pairing
  499. Koordinationseigenschaften der isolobalen Phosphaniminatound Cyclopentadienyl-Liganden in TiCl3(NPH3), TiCl3Cp, ReO3(NPH3) und ReO3Cp
  500. Understanding reactivity with Kohn-Sham molecular orbital theory: E2-SN2 mechanistic spectrum and other concepts
  501. 1,4-Diphosphabutadiyne: A Realistic Target for Synthesis? A Theoretical Investigation of C2P2, C2N2, [Cr(CO)5PCCP], and [(CO)5Cr(PCCP)Cr(CO)5]
  502. Nature of the Three-Electron Bond in H 2 S∴SH 2 +   †
  503. Sulfur–sulfur three-electron bond dissociation enthalpies of dialkyl sulfide dimer radical cations
  504. Kristallstruktur und Bindungsverhältnisse von [W(O-t-Bu)4(THF)]
  505. Kristallstruktur und Bindungsverhältnisse von [W(O-t-Bu)4(THF)]
  506. Is CO a Special Ligand in Organometallic Chemistry? Theoretical Investigation of AB, Fe(CO)4AB, and Fe(AB)5 (AB = N2, CO, BF, SiO)
  507. Alternatives to the CO Ligand: Coordination of the Isolobal Analogues BF, BNH2, BN(CH3)2, and BO− in Mono- and Binuclear First-Row Transition Metal Complexes
  508. Might BF and BNR2 be alternatives to CO? A theoretical quest for new ligands in organometallic chemistry
  509. “Forbidden” Four-Center Reactions:  Molecular Orbital Considerations for N 2 + N 2 and N 2 + N 2 +
  510. The Effect of Microsolvation on E2 and SN2 Reactions: Theoretical Study of the Model System F− + C2H5F +nHF
  511. The Carbon−Lithium Electron Pair Bond in (CH 3 Li) n ( n = 1, 2, 4)
  512. CH 3 • Is Planar Due to H−H Steric Repulsion. Theoretical Study of MH 3 • and MH 3 Cl (M = C, Si, Ge, Sn)
  513. Gas-Phase Base-Induced 1,4-Eliminations:  Occurrence of Single-, Double-, and Triple-Well E1cb Mechanisms J . Am . Chem . Soc . 1995 , 117 , 9889−9899
  514. Gas-Phase Base-Induced 1,4-Eliminations: Occurrence of Single-, Double-, and Triple-Well E1cb Mechanisms
  515. ChemInform Abstract: Structure and Stability of the Li2CN Molecule. An Experimental and ab Initio Study.
  516. Oxidative Insertion as Frontside SN2 Substitution: A Theoretical Study of the Model Reaction System Pd + CH3Cl
  517. Theoretical investigation of the relative stabilities ofXSSXandX2SS isomers (X= F, Cl, H, and CH3)
  518. Structure and Stability of the Li2CN Molecule. An Experimental and ab Initio Study
  519. Theoretical investigation on base-induced 1,2-eliminations in the model system fluoride ion + fluoroethane. The role of the base as a catalyst
  520. ChemInform Abstract: Base‐Induced Imine‐Forming 1,2‐Elimination Reactions in the Gas Phase.
  521. Base-induced imine-forming 1,2-elimination reactions in the gas phase
  522. Anionic ether cleavage of tetrahydrofuran in the gas phase
  523. Central bond in the three CN.cntdot.dimers NC-CN, CN-CN and CN-NC: electron pair bonding and Pauli repulsion effects
  524. Multi-step processes in gas-phase reactions of halomethyl anions XCH2? (X = Cl,Br) with CH3X and NH3
  525. Unusual reactivity of small cyclophanes: nucleophilic attack on 11-chloro- and 8,11-dichloro[5]metacyclophane [Erratum to document cited in CA113(13):114434b]
  526. Isolated excited electronic states in the unimolecular gas-phase ion dissociation processes of the radical cations of isocyanogen and cyanogen
  527. Unusual reactivity of small cyclophanes: nucleophilic attack on 11-chloro- and 8,11-dichloro[5]metacyclophane
  528. Model systems for initial stages in oxidative-addition reactions. Theoretical investigation of .eta.1 and .eta.2 coordination of difluorine and dihydrogen to tetrachloroplatinate(2-) and chromium pentacarbonyl
  529. Substituent Effects on Hydrogen Bonds in DNA
  530. Structure and bonding of methyl alkali metal molecules