All Stories

  1. Metal–Organic Frameworks with Mechanically Interlocked Pillars: Controlling Ring Dynamics in the Solid-State via a Reversible Phase Change

    Article • Journal of the American Chemical Society, May 2014, American Chemical Society (ACS)

    Professor Stephen J Loeb

  2. [2]Pseudorotaxane formation between rigid Y-shaped 2,4,5-triphenylimidazolium axles and [24]crown-8 ether wheels

    Article • Organic & Biomolecular Chemistry, January 2014, Royal Society of Chemistry

    Professor Stephen J Loeb

  3. Organizing Mechanically Interlocked Molecules to Function Inside Metal-Organic Frameworks

    Article • January 2014, Springer Science + Business Media

    Professor Stephen J Loeb

  4. An Interwoven Metal-Organic Framework Combining Mechanically Interlocked Linkers and Interpenetrated Networks

    Article • Chemistry - A European Journal, September 2013, Wiley

    Professor Stephen J Loeb

  5. Invasive male round gobies (Neogobius melanostomus) release pheromones in their urine to attract females

    Article • Canadian Journal of Fisheries and Aquatic Sciences, March 2013, Canadian Science Publishing

    Professor Stephen J Loeb

  6. Mesomorphic [2]Rotaxanes: Sheltering Ionic Cores with Interlocking Components

    Article • Journal of the American Chemical Society, December 2012, American Chemical Society (ACS)

    Professor Stephen J Loeb

  7. Titelbild: Heterolytic Activation of H2Using a Mechanically Interlocked Molecule as a Frustrated Lewis Base (Angew. Chem. 3/2013)

    Article • Angewandte Chemie, December 2012, Wiley

    Professor Stephen J Loeb

  8. Cover Picture: Heterolytic Activation of H2Using a Mechanically Interlocked Molecule as a Frustrated Lewis Base (Angew. Chem. Int. Ed. 3/2013)

    Article • Angewandte Chemie, December 2012, Wiley

    Professor Stephen J Loeb

  9. Heterolytic Activation of H2Using a Mechanically Interlocked Molecule as a Frustrated Lewis Base

    Article • Angewandte Chemie, November 2012, Wiley

    Professor Stephen J Loeb

  10. Heterolytic Activation of H 2 Using a Mechanically Interlocked Molecule as a Frustrated Lewis Base

    Article • Angewandte Chemie, November 2012, Wiley

    Professor Stephen J Loeb

  11. ChemInform Abstract: Coordination Polymers Containing Rotaxane Linkers

    Article • ChemInform, October 2012, Wiley

    Professor Stephen J Loeb

  12. Metal–organic frameworks with dynamic interlocked components

    Article • Nature Chemistry, May 2012, Springer Science + Business Media

    Professor Stephen J Loeb

  13. [2]Pseudorotaxanes from T-Shaped Benzimidazolium Axles and [24]Crown-8 Wheels

    Article • Organic Letters, May 2012, American Chemical Society (ACS)

    Professor Stephen J Loeb

  14. Metal Complexes as Receptors

    Article • January 2012, Wiley

    Professor Stephen J Loeb

  15. Molecular Shuttling of a Compact and Rigid H‐Shaped [2]Rotaxane

    Article • Angewandte Chemie, January 2012, Wiley

    Professor Stephen J Loeb

  16. Molecular Shuttling of a Compact and Rigid H-Shaped [2]Rotaxane

    Article • Angewandte Chemie, January 2012, Wiley

    Professor Stephen J Loeb

  17. Coordination polymers containing rotaxane linkers

    Article • Chemical Society Reviews, January 2012, Royal Society of Chemistry

    Professor Stephen J Loeb

  18. Reactions of substituted pyridines with electrophilic boranes

    Article • Dalton Transactions, January 2012, Royal Society of Chemistry

    Professor Stephen J Loeb

  19. [2]Pseudorotaxanes, [2]rotaxanes and metal–organic rotaxane frameworks containing tetra-substituted dibenzo[24]crown-8 wheels

    Article • Organic & Biomolecular Chemistry, January 2012, Royal Society of Chemistry

    Professor Stephen J Loeb

  20. Bis(benzimidazolium) axles and crown ether wheels: a versatile templating pair for the formation of [2]rotaxane molecular shuttles

    Article • Chemical Science, January 2012, Royal Society of Chemistry

    Professor Stephen J Loeb

  21. Rotaxanes Based on the 1,2‐Bis(pyridinio)ethane–24‐Crown‐8 Templating Motif

    Article • European Journal of Organic Chemistry, February 2011, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  22. Linking [2]rotaxane wheels to create a new type of metal organic rotaxane framework

    Article • Chemical Communications, January 2011, Royal Society of Chemistry

    Professor Stephen J Loeb

  23. Colour coding the co-conformations of a [2]rotaxane flip-switch

    Article • Chemical Communications, January 2011, Royal Society of Chemistry

    Professor Stephen J Loeb

  24. A tetrapyridine ligand with a rigid tetrahedral core forms metal–organic frameworks with PtS type architecture

    Article • Chemical Communications, January 2011, Royal Society of Chemistry

    Professor Stephen J Loeb

  25. Complexes of a [2]rotaxane ligand with terminal terpyridine groups

    Article • Dalton Transactions, January 2011, Royal Society of Chemistry

    Professor Stephen J Loeb

  26. ChemInform Abstract: Metal‐Based Anion Receptors: An Application of Second‐Sphere Coordination

    Article • ChemInform, December 2010, Wiley

    Professor Stephen J Loeb

  27. One-, Two- and Three-Periodic Metal-Organic Rotaxane Frameworks (MORFs): Linking Cationic Transition-Metal Nodes with an Anionic Rotaxane Ligand

    Article • Chemistry - A European Journal, November 2010, Wiley

    Professor Stephen J Loeb

  28. ChemInform Abstract: Second-Sphere Coordination

    Article • ChemInform, August 2010, Wiley

    Professor Stephen J Loeb

  29. A [2]Rotaxane Flip Switch Driven by Coordination Geometry

    Article • Angewandte Chemie, June 2010, Wiley

    Professor Stephen J Loeb

  30. A [2]Rotaxane Flip Switch Driven by Coordination Geometry

    Article • Angewandte Chemie, June 2010, Wiley

    Professor Stephen J Loeb

  31. ChemInform Abstract: 1,2-Bis(4,4′-dipyridinium)ethane: A Versatile Dication for the Formation of [2]Rotaxanes with Dibenzo-24-crown-8 Ether.

    Article • ChemInform, June 2010, Wiley

    Professor Stephen J Loeb

  32. ChemInform Abstract: Rotaxanes as Ligands for Molecular Machines and Metal‐Organic Frameworks

    Article • ChemInform, May 2010, Wiley

    Professor Stephen J Loeb

  33. The Effect of Incorporating Fréchet Dendrons into Rotaxanes and Molecular Shuttles Containing the 1,2‐Bis(pyridinium)ethane⊂[24]Crown‐8 Templating Motif

    Article • Chemistry - A European Journal, April 2010, Wiley

    Professor Stephen J Loeb

  34. Metal-based anion receptors: an application of second-sphere coordination

    Article • Chemical Society Reviews, January 2010, Royal Society of Chemistry

    Professor Stephen J Loeb

  35. Ferrocene substituted thiacyclophanes: Synthesis, electrochemistry and structure of 6-ethynylferrocene-2,11-dithia[3.3]orthocyclophane

    Article • Inorganica Chimica Acta, August 2009, Elsevier

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  36. Eliminating the need for independent counterions in the construction of metal–organic rotaxane frameworks (MORFs)

    Article • Chemical Communications, January 2009, Royal Society of Chemistry

    Professor Stephen J Loeb

  37. ChemInform Abstract: Characterization of a Slippage Stopper for the 1,2‐Bis(pyridinium)ethane‐[24]crown‐8 Ether [2]Pseudorotaxane Motif.

    Article • ChemInform, October 2008, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  38. Characterization of a slippage stopper for the 1,2-bis(pyridinium)ethane–[24]crown-8 ether [2]pseudorotaxane motif

    Article • Tetrahedron, September 2008, Elsevier

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  39. Rotaxanes as Ligands for Molecular Machines and Metal–Organic Frameworks

    Article • February 2008, Wiley

    Professor Stephen J Loeb

  40. Metal–organic anion receptors: trans-functionalised platinum complexes

    Article • Chemical Communications, January 2008, Royal Society of Chemistry

    Professor Philip Gale, Professor Stephen J Loeb

  41. Controlling the ON/OFF threading of a terpyridine containing [2]pseudorotaxane ligand via changes in coordination geometry

    Article • Chemical Communications, January 2008, Royal Society of Chemistry

    Professor Stephen J Loeb

  42. Cooperative Ion–Ion Interactions in the Formation of Interpenetrated Molecules

    Article • Angewandte Chemie, December 2007, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  43. Cooperative Ion–Ion Interactions in the Formation of Interpenetrated Molecules

    Article • Angewandte Chemie, December 2007, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  44. Rotaxanes as Ligands: From Molecules to Materials

    Article • ChemInform, April 2007, Wiley

    Professor Stephen J Loeb

  45. The Missing Link: A 2D Metal-Organic Rotaxane Framework (MORF) with One Rotaxane Linker and One Naked Linker

    Article • Supramolecular Chemistry, March 2007, Taylor & Francis

    Professor Stephen J Loeb

  46. Rotaxanes as ligands: from molecules to materials

    Article • Chemical Society Reviews, January 2007, Royal Society of Chemistry

    Professor Stephen J Loeb

  47. Optically sensed, molecular shuttles driven by acid–base chemistry

    Article • Chemical Communications, January 2007, Royal Society of Chemistry

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  48. 4,4′-Bipyridine-N-monoxide. A hybrid ligand for building networks using a combination of metal–ligand and hydrogen-bonding interactions

    Article • Dalton Transactions, January 2007, Royal Society of Chemistry

    Professor Stephen J Loeb

  49. Coordination polymers with 4,4′-bipyrimidine. Using a combination of endo- and exodentate donors to build a one-dimensional Ag(i) ladder and a heterometallic Co(ii)Ag(i)2 network

    Article • Dalton Transactions, January 2007, Royal Society of Chemistry

    Professor Stephen J Loeb

  50. Push−Pull [2]Pseudorotaxanes. Electronic Control of Threading by Switching ON/OFF an Intramolecular Charge Transfer

    Article • Organic Letters, July 2006, American Chemical Society (ACS)

    James Gauld, Professor Stephen J Loeb, Professor Jorge Tiburcio

  51. Wire‐Type Ruthenium(II) Complexes with Terpyridine‐Containing [2]Rotaxanes as Ligands: Synthesis, Characterization, and Photophysical Properties

    Article • Chemistry - A European Journal, April 2006, Wiley

    Alberto Credi, Professor Stephen J Loeb

  52. Palladium(II) Compounds with Fluorinated Pincer‐Type (SCS) Ligands: X‐ray Structures of C6H4‐1,3‐(CH2SC6H4F‐4)2 and [PdCl(SCS–Rf)] [Rf = C6H

    Article • European Journal of Inorganic Chemistry, February 2006, Wiley

    Professor Stephen J Loeb, Dr. Ruy Cervantes

  53. [2]Pseudorotaxane Formation with N‐Benzylanilinium Axles and 24‐Crown‐8 Ether Wheels.

    Article • ChemInform, January 2006, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  54. A mechanical “flip-switch”. Interconversion between co-conformations of a [2]rotaxane with a single recognition site

    Article • Chemical Communications, January 2006, Royal Society of Chemistry

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  55. A versatile template for the formation of [2]pseudorotaxanes. 1,2-Bis(pyridinium)ethane axles and 24-crown-8 ether wheels

    Article • Organic & Biomolecular Chemistry, January 2006, Royal Society of Chemistry

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  56. Silver(I) Complexes of 2,2′;6′,4″-Terpyridine: The Formation of Discrete Dimers versus Helical Polymers is Anion Dependent

    Article • Supramolecular Chemistry, December 2005, Taylor & Francis

    Professor Stephen J Loeb

  57. [2]Pseudorotaxane Formation with N-Benzylanilinium Axles and 24-Crown-8 Ether Wheels

    Article • Organic Letters, September 2005, American Chemical Society (ACS)

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  58. Metal-Organic Rotaxane Frameworks: Three-Dimensional Polyrotaxanes from Lanthanide-Ion Nodes, PyridiniumN-Oxide Axles, and Crown-Ether Wheels

    Article • Angewandte Chemie, January 2005, Wiley

    Professor Stephen J Loeb

  59. Metal-Organic Rotaxane Frameworks: Three-Dimensional Polyrotaxanes from Lanthanide-Ion Nodes, PyridiniumN-Oxide Axles, and Crown-Ether Wheels

    Article • Angewandte Chemie, January 2005, Wiley

    Professor Stephen J Loeb

  60. NH vs. CH hydrogen bond formation in metal–organic anion receptors containing pyrrolylpyridine ligands

    Article • Chemical Communications, January 2005, Royal Society of Chemistry

    Professor Philip Gale, Professor Stephen J Loeb

  61. Metal–organic rotaxane frameworks; MORFs

    Article • Chemical Communications, January 2005, Royal Society of Chemistry

    Professor Stephen J Loeb

  62. Branched [n]rotaxanes (n = 2–4) from multiple dibenzo-24-crown-8 ether wheels and 1,2-bis(4,4′-dipyridinium)ethane axles

    Article • Organic & Biomolecular Chemistry, January 2005, Royal Society of Chemistry

    Professor Stephen J Loeb

  63. Metal−Organic Anion Receptors:  Arranging Urea Hydrogen-Bond Donors to Encapsulate Sulfate Ions

    Article • Journal of the American Chemical Society, March 2004, American Chemical Society (ACS)

    Professor Philip Gale, Professor Stephen J Loeb

  64. Host–guest interactions template: the synthesis of a [3]catenane

    Article • Chemical Communications, January 2004, Royal Society of Chemistry

    Professor Stephen J Loeb

  65. [2]Rotaxanes containing pyridinium–phosphonium axles and 24-crown-8 ether wheels

    Article • Organic & Biomolecular Chemistry, January 2004, Royal Society of Chemistry

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  66. Channels and Cavities Lined with Interlocked Components: Metal-Based Polyrotaxanes That Utilize Pyridinium Axles and Crown Ether Wheels as Ligands

    Article • Angewandte Chemie, January 2003, Wiley

    Professor Stephen J Loeb

  67. Iron(ii) complexes utilising terpyridine containing [2]rotaxanes as ligands

    Article • Dalton Transactions, January 2003, Royal Society of Chemistry

    Professor Stephen J Loeb

  68. Hydrogen-Bonded Networks through Second-Sphere Coordination

    Article • Chemistry - A European Journal, November 2002, Wiley

    Professor Stephen J Loeb

  69. Cover Picture: Chem. Eur. J. 22/2002

    Article • Chemistry - A European Journal, November 2002, Wiley

    Professor Stephen J Loeb

  70. ChemInform Abstract: Pseudo‐polyrotaxanes Based on a Protonated Version of the 1,2‐Bis(4,4′‐bipyridinium)ethane‐24‐crown‐8 Ether Motif.

    Article • ChemInform, September 2002, Wiley

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  71. Conformational Behavior and Coordination Chemistry of 2,11-Dithia[3.3]orthocyclophane with Platinum Group Metals

    Article • Inorganic Chemistry, June 2002, American Chemical Society (ACS)

    William Jones, Professor Stephen J Loeb, Professor Jorge Tiburcio

  72. Pseudo-polyrotaxanes based on a protonated version of the 1,2-bis(4,4′-bipyridinium)ethane–24-crown-8 ether motif

    Article • Chemical Communications, May 2002, Royal Society of Chemistry

    Professor Stephen J Loeb, Professor Jorge Tiburcio

  73. Amido complexes of platinum(II) as receptors for the nitrate ion

    Article • Journal of Supramolecular Chemistry, January 2002, Elsevier

    Professor Philip Gale, Professor Stephen J Loeb

  74. Molecular squares, rectangles and infinite helical chains utilising the simple ‘corner’ ligand 4-(2-pyridyl)-pyrimidine

    Article • Chemical Communications, January 2002, Royal Society of Chemistry

    Professor Stephen J Loeb

  75. Zwitterionic [2]rotaxanes utilising anionic transition metal stoppers

    Article • Journal of the Chemical Society Dalton Transactions, October 2001, Royal Society of Chemistry

    Professor Stephen J Loeb

  76. Platinum(ii) nicotinamide complexes as receptors for oxo-anions

    Article • Chemical Communications, January 2001, Royal Society of Chemistry

    Professor Philip Gale, Professor Stephen J Loeb

  77. Calixarene Metalloreceptors: Demonstration of Size and Shape Selectivity inside a Calixarene Cavity

    Article • July 2000, American Chemical Society (ACS)

    Professor Stephen J Loeb

  78. [3]Rotaxanes employing multiple 1,2-bis(pyridinium) ethane binding sites and dibenzo-24-crown-8 ethers

    Article • Chemical Communications, January 2000, Royal Society of Chemistry

    Professor Stephen J Loeb

  79. [2]Rotaxane molecular shuttles employing 1,2-bis(pyridinium)ethane binding sites and dibenzo-24-crown-8 ethers

    Article • Chemical Communications, January 2000, Royal Society of Chemistry

    Professor Stephen J Loeb

  80. ChemInform Abstract: Combining Thiacyclophane and Benzocrown Ether Binding Sites in the Design of Haptoselective Ligands and Metalloreceptors.

    Article • ChemInform, April 1999, Wiley

    Professor Stephen J Loeb

  81. Combining thiacyclophane and benzocrown ether binding sites in the design of haptoselective ligands and metalloreceptors

    Article • Tetrahedron, December 1998, Elsevier

    Professor Stephen J Loeb

  82. A New Motif for the Self-Assembly of [2]Pseudorotaxanes; 1,2-Bis(pyridinium)ethane Axles and [24]Crown-8 Ether Wheels

    Article • Angewandte Chemie, November 1998, Wiley

    Professor Stephen J Loeb

  83. Mono- versus Dipalladation of the Durene-Based Tetrathioether Ligand 1,2,4,5-(tBuSCH2)4C6H2. Structures of [PdCl((tBuSCH2)4C6H)] and [Pd2((tBuS...

    Article • Organometallics, April 1998, American Chemical Society (ACS)

    Professor Stephen J Loeb

  84. Supramolecular Arrays of 4,7-Phenanthroline Complexes: Self-Assembly of Molecular Pd6 Hexagons

    Article • Angewandte Chemie, February 1998, Wiley

    Professor Stephen J Loeb

  85. Supramolecular Arrays of 4,7-Phenanthroline Complexes: Self-Assembly of Molecular Pd6 Hexagons

    Article • Angewandte Chemie, February 1998, Wiley

    Professor Stephen J Loeb

  86. Verbände von Komplexen mit 4,7-Phenanthrolin-Liganden: Selbstorganisation von molekularen Pd6-Sechsecken

    Article • Angewandte Chemie, January 1998, Wiley

    Professor Stephen J Loeb

  87. 1,2-Bis(4,4′-dipyridinium)ethane: a versatile dication for the formation of [2]rotaxanes with dibenzo-24-crown-8 ether

    Article • Chemical Communications, January 1998, Royal Society of Chemistry

    Professor Stephen J Loeb

  88. Calixarene Metalloreceptors. Synthesis and Molecular Recognition Properties of Upper-Rim Functionalized Calix[4]arenes Containing an Organopalladium Binding Site

    Article • Inorganic Chemistry, November 1997, American Chemical Society (ACS)

    Professor Stephen J Loeb

  89. Molecular Receptors for Adenine and Guanine Employing Metal Coordination, Hydrogen-Bonding and π-Stacking Interactions

    Article • Chemistry - A European Journal, August 1997, Wiley

    Professor Stephen J Loeb

  90. Bis(amido)calix[4]arenes in the pinched cone conformation as tuneable hydrogen-bonding anion receptors

    Article • Chemical Communications, January 1997, Royal Society of Chemistry

    Professor Stephen J Loeb

  91. Platinum(II) complexes of the tridentate thioether ligands RS(CH 2 ) 3 S(CH 2 ) 3 SR (R = Et, iPr, Ph). Structures of [PtCl (iPrS(CH 2 ) 3 S(CH 2 ) 3 SiPr)][BF 4 ], [PtI(PhS(CH 2 ) 3 S(CH 2 ) 2 SPh)][BF 4 ], and [Pt(PPh 3 )(iPrS(CH 2 ) 3 S(CH 2 ) 3 Si...

    Article • Canadian Journal of Chemistry, July 1996, Canadian Science Publishing

    Professor Stephen J Loeb

  92. Tetranuclear Ag(I) complexes with an octagonal Ag4S4 core: building large structures from small macrocycles

    Article • Inorganica Chimica Acta, May 1996, Elsevier

    Professor Stephen J Loeb

  93. Transition Metal Complexes as Both Host and Guest: Second-Sphere Coordination between a Pt-Azacrown Ether Host and a Pt-NH3 Guest

    Article • Angewandte Chemie, January 1996, Wiley

    Professor Stephen J Loeb

  94. Calixarene metalloreceptor. Upper-rim functionalized calix[4]arenas containing an organopalladium binding site

    Article • Chemical Communications, January 1996, Royal Society of Chemistry

    Professor Stephen J Loeb

  95. Übergangsmetallkomplexe als Wirt und als Gast: Koordination eines Platin-Ammin-Komplexes in zweiter Sphäre an einen Platin-haltigen Azakronenether

    Article • Angewandte Chemie, December 1995, Wiley

    Professor Stephen J Loeb

  96. Simultaneous First- and Second-Sphere Coordination. Organopalladium Metalloreceptors for Water, Ammonia, Amines, Hydrazine, and the Hydrazinium Ion

    Article • Inorganic Chemistry, October 1995, American Chemical Society (ACS)

    Professor Stephen J Loeb

  97. Silver(I)-Selective Thioether Ligands. Solution NMR and X-ray Structural Studies on the Interaction of 2,5,8-Trithia[9]-m-cyclophane and Related Ligands with Silver(I)

    Article • Inorganic Chemistry, October 1995, American Chemical Society (ACS)

    Professor Stephen J Loeb

  98. Unusual Interaction of Ag+ with an Organopalladium Crown Ether. Synthesis and Structures of [PdCl(L)] and [Pd(H2O)(L)(Ag)][CF3SO3]2 (L = 5,8,11-Trioxa-2,14-dithia-[15]-m-cyclophane)

    Article • Organometallics, July 1995, American Chemical Society (ACS)

    Professor Stephen J Loeb

  99. Ruthenium(II) complexes of the thiacyclophane ligands 2,5,8-trithia[9]-o-cyclophane (TT[9]OC) and 5-oxa-2,8-dithia[9]-o-cyclophane (ODT[9]OC). Structures of RuCl2(DMSO)(TT[9]OC) and RuCl2(PPh3)(ODT[9]OC)

    Article • Canadian Journal of Chemistry, July 1995, Canadian Science Publishing

    Professor Stephen J Loeb

  100. Properties and Structures of Thallium(I) Derivatives of Aromatic Diols

    Article • Inorganic Chemistry, January 1995, American Chemical Society (ACS)

    Professor Stephen J Loeb

  101. Simultaneous First- and Second-Sphere Coordination. Organopalladium Crown Ether Complexes as Metalloreceptors for o-Aminopyridine Derivatives

    Article • Inorganic Chemistry, September 1994, American Chemical Society (ACS)

    Professor Stephen J Loeb

  102. Ditopic thiacyclophanes containing the S(CH2)2X(CH2)2S (X = O, S) linkage. Synthesis and structures of 2,5,8,17,20,23-hexathia[9](1,2)[9](4,5)cyclophane and 5,20-dioxa-2,8,17,23-tetrathia[9](1,3)[9](4,6)-2,5-...

    Article • Canadian Journal of Chemistry, July 1994, Canadian Science Publishing

    Professor Stephen J Loeb

  103. Large-Ring S6-Thiacyclophanes as Ditopic Macrocycles. Synthesis and Structures of 2,5,8,17,20,23-Hexathia[9.9]-o-cyclophane, HT[9.9]OC, 2,5,8,17,20,23-Hexathia[9.9]-m-cyclophane, HT[9.9]MC, and [Ag2(CH3CN)2(HT[9.9]OC)][BF4]2

    Article • Inorganic Chemistry, June 1994, American Chemical Society (ACS)

    Professor Stephen J Loeb

  104. Thiacyclophane Complexes of Rhodium and Iridium. Synthesis, Structure, and Reactivity of [M(COD)(L)][BF4] (M = Rh, Ir; L = 2,5,8-Trithia[9]-o-cyclophane (TT[9]OC), 5-Oxa-2,8-dithia[9]-o-cyclophane (ODT[9]OC))

    Article • Organometallics, May 1994, American Chemical Society (ACS)

    Professor Stephen J Loeb

  105. Molecular recognition of nucleobases via simultaneous first- and second-sphere coordination

    Article • Journal of the American Chemical Society, July 1993, American Chemical Society (ACS)

    Professor Stephen J Loeb

  106. Ditopic crown thioethers. Synthesis and structures of anti-[Cu2(L)(PPh2Me)2][ClO4]2, syn-[Cu2(L)(.mu.-PPh2CH2CH2PPh2)][PF6]2, and anti-[Ag2(L)(PPh3)2][BF4]2 (L = 2,5,8,17,20,23-hexathia[9](1,2)[9](4,5)cyclophane)

    Article • Inorganic Chemistry, March 1993, American Chemical Society (ACS)

    Professor Stephen J Loeb

  107. Coordination chemistry of the tetrathiacyclophane ligand 2,5,14,17-tetrathia[6.6]-o-cyclophane, TT[6.6]OC. Synthesis and structures of TT[6.6]OC and [Pt(TT[6.6]OC)] [BF4]2

    Article • Inorganic Chemistry, March 1993, American Chemical Society (ACS)

    Professor Stephen J Loeb

  108. Receptors for the hydrazinium ion. Simultaneous first- and second-sphere coordination inside organopalladium crown ether complexes

    Article • Journal of the Chemical Society Chemical Communications, January 1993, Royal Society of Chemistry

    Professor Stephen J Loeb

  109. Dimetallated thioether complexes as building blocks for organometallic coordination polymers and aggregates

    Article • Journal of the Chemical Society Chemical Communications, January 1993, Royal Society of Chemistry

    Professor Stephen J Loeb

  110. Metalation of the crown thioether ligand 2,6,10-trithia[11]-m-cyclophane (TT[11]MC). Synthesis, structure, and reactivity of [Pt(TT[11]MC)][BF4] and structures of [Pt(PPh2Me)(TT[11]MC)][BF4] and [PtI2(TT[11]MC)][BF4]

    Article • Organometallics, September 1992, American Chemical Society (ACS)

    Professor Stephen J Loeb

  111. Thiacyclophanes containing the -S(CH2)3S(CH2)3S- linkage. Synthesis and structures of 2,6,10-trithia[11]-o-cyclophane (TT[ll]OC), 2,6,10-trithia[11]-m-cyclophane (TT[11]MC), and the palladation product [Pd(TT[11]MC)][BF4]

    Article • Inorganic Chemistry, July 1992, American Chemical Society (ACS)

    Garry Hanan, Professor Stephen J Loeb

  112. Exodentate versus endodentate coordination of a crown thioether ligand in silver(I) complexes of 2,5,8-trithia[9]-o-benzenophane (TT[9]OB). Structures of [Ag(TT[9]OB)2][X] (X = ClO4, BPh4, CF3SO3)

    Article • Inorganic Chemistry, January 1992, American Chemical Society (ACS)

    Professor Stephen J Loeb

  113. Synthesis of Bis-Crown Thioethers Containing a Common Aromatic Unit. Regioselectivity Based on the Length of the -S(CH 2 ) n S(CH 2 ) n S-Chain

    Article • Synlett, January 1992, Thieme Publishing Group

    Professor Stephen J Loeb

  114. Dependence of complex structure on ligand conformation in palladium(II) complexes of the crown thioether ligands 2,5,8-trithia[9]-o-benzenophane (TT[9]OB) and 2,5,8-trithia[9]-m-benzenophane (TT[9]MB). Structures of PdCl2(TT[9]OB).cntdot.DMSO and PdCl2...

    Article • Inorganic Chemistry, November 1991, American Chemical Society (ACS)

    Professor Stephen J Loeb

  115. Encapsulation of silver(I) by the crown thioether ligand 1,3,6,9,11,14-hexathiacyclohexadecane (16S6). Synthesis and structure of [Ag(16S6)][ClO4]

    Article • Inorganic Chemistry, July 1991, American Chemical Society (ACS)

    Professor Stephen J Loeb

  116. Complexes of the crown thioether ligand 2,5,8-trithia[9]-o-benzenophane, (TT[9]OB). Synthesis and molecular structure of [Cu(NCS)(TT[9]OB)]

    Article • Canadian Journal of Chemistry, July 1991, Canadian Science Publishing

    Professor Stephen J Loeb

  117. Ditopic crown thioethers. Synthesis and structures of anti-[Cu2(L1)(PPh2Me)2][ClO4]2and syn-[Cu2(L1)(µ-PPh2CH2CH2PPh2)][...

    Article • Journal of the Chemical Society Chemical Communications, January 1991, Royal Society of Chemistry

    Professor Stephen J Loeb

  118. Metallation of a crown thioether ligand. Synthesis, structure and reactivity of [Pt(L1)][BF4] and structure of [PtI2(L1)][BF4](L1= 2,6,10-trithia[11]-m-benezenophane)

    Article • Journal of the Chemical Society Chemical Communications, January 1991, Royal Society of Chemistry

    Professor Stephen J Loeb

  119. Copper(I) and silver(I) complexes of the crown thioether ligand 2,5,8-trithia[9]-o-benzenophane (TT[9]OB). Structures of [Cu(PPh2Me)(TT[9]OB)][ClO4] and [Ag(PPh3)(TT[9]OB)][ClO4]

    Article • Inorganic Chemistry, January 1991, American Chemical Society (ACS)

    Professor Stephen J Loeb

  120. Crown thioether ligands containing rigid xylyl units. Synthesis and structures of 2,5,8-trithia[9]-o-benzenophane (TTOB), 2,5,8-trithia[9]-m-benzenophane (TTMB) and fac-Mo(CO)3(TTOB).DMSO

    Article • Inorganic Chemistry, October 1990, American Chemical Society (ACS)

    Professor Stephen J Loeb

  121. Dihydride formation versus H2-elimination in the protonation of the heterobimetallic FePt complex (CO)3Fe(μ-H)(μ-PCy2)Pt(PEt3)2

    Article • Canadian Journal of Chemistry, June 1990, Canadian Science Publishing

    Professor Stephen J Loeb

  122. Simultaneous coordination of the endo- and exo-conformations of a crown thioether ligand to a single metal centre; synthesis and structure of [Ag(L1)2][CF3SO3], where L1= 2,5,8-trithia[9]ortho-benzenophane

    Article • Journal of the Chemical Society Chemical Communications, January 1990, Royal Society of Chemistry

    Professor Stephen J Loeb

  123. Synthesis and structural characterization of the crown thioether 1,3,6,9,11,14-hexathiacyclohexadecane (16S6) and the copper(I) complex [Cu(16S6)][ClO4]

    Article • Inorganic Chemistry, September 1989, American Chemical Society (ACS)

    Professor Stephen J Loeb

  124. Synthesis and reaction chemistry of the heterobimetallic FeIr complexes (CO)3(PPh3)Fe(μ-PCy2)Ir(PPh3)(CO)2 and (CO)4Fe(μ-PCy2)Ir(1,5-COD)

    Article • Canadian Journal of Chemistry, July 1989, Canadian Science Publishing

    Professor Stephen J Loeb

  125. (CO)(Pet3)ClIr(μ-Pcy2)2IrCl(Pet3)(CO), a phosphido-bridged bimetallic iridium(II) complex

    Article • Inorganica Chimica Acta, May 1989, Elsevier

    Professor Stephen J Loeb

  126. Synthesis and reaction chemistry of the coordinatively unsaturated heterobimetallic complexes (CO)3(PPh3)Fe(.mu.-PCy2)Rh(PPh3)(CO) and (CO)4Fe(.mu.-PCy2)Rh(1,5-COD). Crystal and molecular structure of (CO)3(PPh3)Fe(.mu.-PCy2)Rh(PPh3)(CO)

    Article • Inorganic Chemistry, May 1989, American Chemical Society (ACS)

    Professor Stephen J Loeb

  127. Mononuclear Rh, Ir, Pd, and Pt complexes of the tripod ligand (Ph2P)3CH.The molecular structure of bis[1,1,1-tris(diphenylphosphino)methane]platinum(II) tetrafluoroborate

    Article • Canadian Journal of Chemistry, May 1988, Canadian Science Publishing

    Professor Stephen J Loeb

  128. Heterobimetallic dicyclohexylphosphido-bridged complexes of MoNi, MoPd, MoPt, WNi, WPd, and WPt. Crystal and molecular structure of bis(.mu.-dicyclohexylphosphido)(triphenylphosphine)(tetracarbonylmolybdenum)palladium (Mo-Pd)

    Article • Inorganic Chemistry, June 1986, American Chemical Society (ACS)

    Professor Stephen J Loeb

  129. Diazoalkane activation by iridium phosphine compounds. 1. Complexes containing the intact dibenzoyldiazomethane ligand and interconversion between the .eta.1-N-bound and chelated N,O-bound form of the ligand accompanied by hydride migration

    Article • Organometallics, May 1986, American Chemical Society (ACS)

    Professor Stephen J Loeb

  130. Diazoalkane activation by iridium phosphine compounds. 2. Unusual products resulting from nitrogen loss from the dibenzoyldiazomethane ligand: structures of cyclic-[IrCl[HC(COPh)2](PC6H4Ph2)(PPh3)].1/2PhMe and cyclic-[IrCl[(C6H4)COCCPhOPPh2](PPh3)2].PhMe

    Article • Organometallics, May 1986, American Chemical Society (ACS)

    Professor Stephen J Loeb

  131. Coordination modes of polydentate ligands. 4. The crystal and molecular structure of an oxo-bridged iron(III) complex containing a pentadentate imino-alkoxy ligand

    Article • Inorganica Chimica Acta, May 1986, Elsevier

    Professor Stephen J Loeb

  132. Structure of [Rh2(CO)2(.mu.-C2CMe3)(Ph2PCH2PPh2)2]ClO4].cntdot.O.866CH2Cl2: an "A-frame" compound containing a .sigma.,.pi.-acetylido group

    Article • Organometallics, May 1985, American Chemical Society (ACS)

    Professor Stephen J Loeb

  133. The molecular structure of Rh2Cl2(μ-CO)(μ-(C6H52PCH2P(C6H5)2)·2C6H6: A rhodium ‘a-frame’ complex

    Article • Inorganica Chimica Acta, March 1985, Elsevier

    Professor Stephen J Loeb

  134. Coordination modes of polydentate ligands. 2. Template synthesis of four-, five-, and six-coordinate fluorinated Schiff-base complexes of nickel(2+): structure of an octahedral nickel(2+) complex containing two tridentate ligands

    Article • Inorganic Chemistry, May 1984, American Chemical Society (ACS)

    Professor Stephen J Loeb

  135. Coordination modes of polydentate ligands. 1. Template synthesis of complexes of nickel(2+), copper(2+), and cobalt(2+) with pentadentate and hexadentate ligands: structure of a highly distorted six-coordinate cobalt(2+) complex

    Article • Inorganic Chemistry, February 1984, American Chemical Society (ACS)

    Professor Stephen J Loeb

  136. Synthesis, structure, absolute configuration, and magnetic studies of some copper(II) complexes of chiral bidentate and tridentate fluorinated aminoalkoxy ligands

    Article • Inorganic Chemistry, September 1983, American Chemical Society (ACS)

    Professor Stephen J Loeb

  137. Unexpected ortho-metalated products resulting from dibenzoyldiazomethane activation in the presence of iridium phosphine complexes

    Article • Organometallics, August 1983, American Chemical Society (ACS)

    Professor Stephen J Loeb

  138. Coordination modes of some fluorinated, potentially polydentate, ligands

    Article • Journal of Fluorine Chemistry, September 1982, Elsevier

    Professor Stephen J Loeb

  139. Synthesis and magnetic properties of some chiral tetranuclear imino-alkoxy complexes of copper(II)

    Article • Inorganic Chemistry, September 1981, American Chemical Society (ACS)

    Professor Stephen J Loeb

  140. Fluorinated alkoxides. 16. Structure of a dinuclear imino alkoxy complex of copper(II)

    Article • Inorganic Chemistry, January 1981, American Chemical Society (ACS)

    Professor Stephen J Loeb

  141. Crystal and molecular structures of bis[.mu.-9,9,9-trifluoro-8-(trifluoromethyl)-6-methyl-5-azanon-5-ene-1,8-diolato(2-)-.mu.-0,N,0']-dicopper(II), Cu2C20H26F12N2O4, and bis[.mu.-8,8,8-trifluoro-7-(trifluoromethyl)-5-methyl-4-azaoct-4-ene-1,7-diolato(2...

    Article • Inorganic Chemistry, January 1981, American Chemical Society (ACS)

    Professor Stephen J Loeb

  142. Template synthesis and crystal and molecular structure of bis[1,1,1,12,12,12-hexafluoro-2,11-bis(trifluoromethyl)-4,9-dimethyl-2,11-diolato-5,8-diazadodeca-4,8-diene(2-)]cerium(IV), CeC28H28F24O4N4. A fluorinated Schiff base complex of eight-coordinate...

    Article • Inorganic Chemistry, December 1980, American Chemical Society (ACS)

    Professor Stephen J Loeb

  143. Fluorinated alkoxides. 15. Synthesis and hydrogenation of iminoalkoxy complexes of copper(2+). Influence of chelate ring size on structure and magnetic properties

    Article • Inorganic Chemistry, November 1979, American Chemical Society (ACS)

    Professor Stephen J Loeb

  144. Fluorinated alkoxides. Part XII. Studies on potentially tridentate fluorinated diols; zwitterionic and five-coordinate complexes of Ni2+ and Cu2+

    Article • Canadian Journal of Chemistry, September 1978, Canadian Science Publishing

    Professor Stephen J Loeb