J. Grobe

发表

Synthesis, structure and isomerization of fluorine-containing 1,2-dihydro-1,3-diphosphetes

E. Würthwein, M. Böhringer, G. Becker, 1997 .

Electronic structure of transition metal compounds

R. Gleiter, M. Böhm, J. Grobe, 1983 .

Electrochemical and Chemical Syntheses of Trifluoromethylating Reagents and Trifluoromethyl Substituted Compounds

J. Grobe, J. Hegge, 2008 .

Aldehyde-functionalized ethoxysilanes as new enzyme immobilization reagents

C. Brüning, J. Grobe, 1995 .

Preparation and crystal structure of superconducting Y2FeC4 and isotypic lanthanoid iron carbides

W. Jeitschko, L. Boonk, M. Gerss, 1987 .

Reactive EC(p‐p)π‐systems 53 [1]: Reactivity studies on perfluoro‐2‐arsapropene: [2+2]‐cycloaddition reactions and quantum chemical calculations

E. Würthwein, T. Albers, A. H. Maulitz, 2005 .

Facile Synthesis of Heteroalkenes CF3ECF2 (EP, As)†

J. Grobe, D. L. Van, 1984 .

NOVEL TETRAPHOSPHABARRELENE AND -SEMIBULLVALENE DERIVATIVES BY REACTIONS OF 2,4,6-TRI-TERT-BUTYL-1,3,5-TRIPHOSPHABENZENE WITH PHOSPHAALKYNES

S. Stutzmann, C. Krüger, P. Binger, 1998 .

Trifluoromethyl phosphaalkenes of the type F3CPC(OR)NR2: Synthesis, spectroscopic investigations, and ligand properties [1]†

R. Gleiter, B. Krebs, J. Grobe, 1991 .

Reaktive EC(p–p)π‐Systeme, XXXII[1a] Phosphorylide Me3P = C(X)P(F)CF3 mit π‐Donor‐Substituenten X = F, OMe, OEt

J. Grobe, U. Althoff, D. L. Van, 1992 .

Electrochemical Synthesis of Metal Complexes and Homogeneous Catalysts

J. Grobe, 1990 .

Elektrochemische Synthesen, VII [1] Elektrochemische Substitutionsreaktionen an M(CO)6-n (PR3)n-Komplexen (M = Cr, Mo, W) / Electrochemical Syntheses, VII [1] Electrochemical Substitution Reactions of M(CO)6-n(PR3)n Complexes (M = Cr, Mo, W)

J. Grobe, H. Zimmermann, 1981 .

Alternativ‐Liganden. XXV. Neue Chelatliganden des Typs Me2ESiMe2(CH2)2E′Me2 (E=P, As; E′=N, P, As)

J. Grobe, S. Göbelbecker, D. Syndikus, 1992 .

Perfluormethyl-element-liganden : XVI. Reaktionen einkerniger Rn EM(CO)5-komplexe (M = Mn, Re; E = P, As, S, Se; R = CH3, CF3; n = 1, 2)

J. Grobe, R. Rau, 1978 .

Reaktive EC(p‐p)n‐Systeme, XXXVIII. Molekül‐ und Elektronenstruktur des 2‐(Diisopropylamino)‐1λ3‐phosphaethins iPr2NCP

R. Gleiter, K. Pfeifer, M. Böhringer, 1994 .

Kinetics and mechanism of pyrolysis of hydridosilacyclobutanes

T. Barton, I. Davidson, N. Auner, 1984 .

Silaethene. VII. Darstellung und Charakterisierung SiF‐haltiger Silacyclobutane Silaethene. VII. Preparation and Characterization of Silacyclobutanes with SiF Groups

N. Auner, J. Grobe, 1982 .

Ein neuartiges 3z‐2e‐Bindungssystem

U. Möller, R. Martin, J. Grobe, 1977 .

A Novel 3z‐2e Bond System

U. Möller, R. Martin, J. Grobe, 1977 .

Perfluormethyl-Element-Liganden. XXXII. Reaktionen der Metallhydride π-C5H5(CO)3MH (M = Cr, Mo, W) mit Diphosphanen [Ph2−nYnP]2 (Y = I, CN, SiMe3; n = 2, 1, 0)

R. Haubold, J. Grobe, 1985 .

Perfluormethyl-Element-Liganden. XLIII [1] Neue Synthesewege zu Zweikernkomplexen des Typs MM′(CO)8ER2X (M/M′ = Mn/Mn, Mn/Re, Re/Re; E = P, As; R = CF3, Me; X = Hal)†

J. Grobe, W. Kopp, G. Beysel, 2002 .

Perfluormethyl-element-liganden

J. Grobe, F. Kober, 1971 .

Reaktive EC (pp) π-Systeme, XIV. Synthese und Struktur von Phosphaalkenen des Typs F3CPC(F)NR2

B. Krebs, J. Grobe, D. L. Van, 1988 .

The chemistry of fluorine containing phosphaalkenes, arsaalkenes and selenocarbonyls

J. Grobe, D. L. Van, 2004 .

Reactive E:C (p-p) systems. 7. Gas-phase structures of perfluoro-2-phosphapropene, CF3P:CF2, and its cyclic dimer, (CF3PCF2)2

H. Oberhammer, J. Grobe, B. Steger, 1986 .

Die He(I)‐Photoelektronenspektren von (CH3)2PSCH3, (CH3)2AsSCH3, (CH3)2AsSeCH3 und (CH3)2PSeCH31)

R. Gleiter, M. Eckert-Maksić, J. Grobe, 1981 .

Molecular structures of phosphorus compounds. 10. Conformations and structures of (trifluoromethyl)fluorophosphoranes, (CF3)nPF(5-n) (n = 1, 2, 3) in the gas phase

H. Oberhammer, J. Grobe, D. L. Van, 1982 .

Unusual Coordination of the 1,3-Diphosphacyclobutadiene Derivative (iPr2NCP)2 to Two [Ni(CO)3] Fragments†

B. Krebs, M. Läge, J. Grobe, 1992 .

1,2,3‐Triphosphetenes, First Examples of a New Class of Phosphorus Heterocycles

B. Krebs, M. Läge, J. Grobe, 1996 .

Nature of the Metal−Ligand Bond in M(CO)5PX3 Complexes (M = Cr, Mo, W; X = H, Me, F, Cl): Synthesis, Molecular Structure, and Quantum-Chemical Calculations

G. Frenking, N. Fröhlich, B. Krebs, 2002 .

Reactions of Polyfluoroarenes with MenE-MMe3 Reagents (MenE = Me2As, Me2P, Me2N, and MeS; M = Si, Sn): Synthesis of Polyfluoroaryl MenE CompoundsDedicated to Professor Dieter Naumann on the Occasion of his 60th Birthday

L. I. Goryunov, V. D. Shteingarts, B. Krebs, 2002 .

Trimethylsilyl- and trimethylstannyldimethylphosphane--convenient and versatile reagents for the synthesis of polyfluoroaryldimethylphosphanes.

C. Mück‐Lichtenfeld, E. Würthwein, L. I. Goryunov, 2000, Chemistry.

Reactive E=C(p‐p)π‐Systems. 55. [1] Ligand Properties of 1‐Trifluoromethyl‐2‐diethylamino‐2‐fluoro‐1‐arsaethene, F3CAs=C(F)NEt2

T. Albers, J. Grobe, 2005 .

PERFLUOROMETHYL-ELEMENT LIGANDS. XVIII. PREPARATION AND SPECTROSCOPIC INVESTIGATION OF M(CO)5L AND M(CO)4L2 COMPLEXES (L = MENP(CF3)3-N; N = 0-3; M = CR, MO, W)

R. Bacher, J. Grobe, D. L. Van, 1979 .

Preparation and Some Properties of Di[bis(trifluoromethyl)phosphido]mercury Hg[P(CF3)2]2

R. Demuth, J. Grobe, 1972 .

Alternativ-Liganden. XXVI [1]. M(CO)4L-Komplexe (M Cr, Mo, W) der Chelatliganden Me2ESiMe2(CH2)2E′Me2 (Me CH3; E P, As; E′ N, P, As)†

B. Krebs, M. Läge, J. Grobe, 1992 .

Alternativ‐Liganden. IX. Chelatkomplexe des Typs M(CO)4(Me2XSiMe2CH2X′Me2) (M = Cr, Mo, W; X, X′ = N, P, As; Me = CH3)

G. Scheuer, J. Grobe, 1978 .

Investigation of the synthesis of acetic anhydride by homogeneous catalysis: II. Spectroscopic studies of the mechanism

G. Luft, J. Grobe, M. Schrod, 1983 .

PERFLUOROMETHYL ELEMENT LIGANDS. XXVIII. COORDINATING BEHAVIOR OF ORGANOELEMENT ELEMENT LIGANDS R2EE′R AND R2EER′2(R, R′ = CH3, CF3; E = P, AS; E′ = S, SE, TE)

J. Grobe, D. L. Van, 1985 .

Alternative-liganden XIII. Koordinatives verhalten der chelatliganden Me2XGeMe2(CH2)2X′Me2 (Me CH3; X, X′ N, P, As)

J. Grobe, K. Betka, 1981 .

Perfluormethyl‐Element‐Liganden. Reaktionen der Metallhydride π‐C5H5(CO)3 MH (M = Cr, Mo, W) mit Organoelement‐Elementverbindungen des Typs R2EER2 und RE′ E′ R (E = As; E′ = S, Se; R = CH3 CF3)

R. Haubold, J. Grobe, 1985 .

ALTERNATIVE LIGANDS. IV. PREPARATION OF CHELATING LIGANDS OF THE TYPE ME2XSIME2CH2X′ME2 (ME = CH3, X,X′ = N,P AND OR AS)

G. Scheuer, J. Grobe, 1977 .

PERFLUOROMETHYL-ELEMENT LIGANDS. XVII. FORMATION OF ADDUCTS OF MENE(CF3)3-N LIGANDS WITH BX3 COMPOUNDS (ME = CH3; E = P, AS, SB; N = 0-3; X = H, CH3, HALIDE)

J. Grobe, J. Apel, 1979 .

Reactive E=C(p-p)π-Systems. 56 [1] Attempted Preparation of PhE=C(CF3)2 by Reactions of Hexafluoroacetone with PhE(SiMe3)2 (E = As, P)

T. Albers, J. Grobe, 2005 .

Cycloarsanes (AsCF3)n (n = 4, 5) – Precursors for the Highly Reactive Diarsene F3CAs=AsCF3

E. Würthwein, B. Krebs, M. Läge, 2006 .

Reactive E=C [p‐p]π Systems, 45[]. 1‐Aza‐3,4‐diphospholenes by [3 + 2] Cycloaddition of 2‐(Diisopropylamino)phosphaethyne to Diazo Derivatives R1R2C=N2

B. Krebs, M. Läge, J. Grobe, 1996 .

Reactive EC [p‐p] π Systems, 46 Syntheses and X‐ray Crystal‐Structure Analyses of Trifluoromethyl‐Substituted Ketiminodiselanes, Selenoamides and Selenoacrylamides

B. Krebs, J. Grobe, D. L. Van, 1997 .

Phosphinodefluorination of polyfluorobenzenes by silylphosphines Ph(R)PSiMe3 (R = Me, Ph): Further experimental and computational evidences for the concerted ANDN mechanism of aromatic nucleophilic substitution

E. Würthwein, I. Bagryanskaya, L. I. Goryunov, 2014 .

Reaktive E = C(p‐p)π‐Systeme. XLII [1]. Neue Koordinationsverbindungen des 2‐(Diisopropylamino)‐1‐phosphaethins: [{η4‐(iPr2NCP)2}Ni{η2‐(iPr2NCP)}], [(Ph3P)2Pt{η2‐(iPr2NCP)}] und [Co2(CO)6{η2‐η2‐(iPr2NCP)}]

B. Krebs, M. Läge, J. Grobe, 1996 .

55Mn shielding in carbonylmanganese halides containing phosphido and arsenido bridges

D. Rehder, J. Grobe, W. Kopp, 1986 .

Transient Silenes and Their Dimethyl-d6 Ether Donor Complexes from the Gas-Phase Pyrolysis of Siletanes†,‡

N. Auner, J. Grobe, §⊥ and Thomas Müller, 2000 .

Reaktive E=C(p—p)π-Systenie, XIX. F3CP=C(H)F und F3CP = C(D)F als Dienophile / Reactive E=C(p—p)π-Systems, XIX. F3CP=C(H)F and F3CP=C(D)F as Dienophiles

E. Würthwein, J. Grobe, U. Althoff, 1989 .

Di‐ and Trifluorobenzenes in Reactions with Me2EM (E = P, N; M = SiMe3, SnMe3, Li) Reagents: Evidence for a Concerted Mechanism of Aromatic Nucleophilic Substitution

E. Würthwein, L. I. Goryunov, V. D. Shteingarts, 2010 .

Novel Diphosphetene Derivatives by Reactions of Di(isopropyl)aminophosphaethyne with Chalcogens or Halogens

B. Krebs, M. Läge, J. Kuchinke, 2000 .

Reactions of iPr2NCP with methylating agents: Formation of the diamino-2-phosphaallylic cation ⊕†

B. Krebs, M. Läge, J. Grobe, 1994 .

Novel phosphabicyclo[2.2.2]-octa-2,5-dienes from iPr2N-C≡P or tBu-C≡P and a polyfluorinated cyclohexadienone

J. Grobe, D. L. Van, Burkhardt Broschk, 1993 .

Fluorophosphaalkenes F3CP=C (F) NR2, HP=C (F) NR2 and Aminophosphaalkynes P≡C[sbnd]NR2-Synthesis, Structure and Reactivity

J. Grobe, D. L. Van, M. Hegemann, 1993 .

Reactive E = C(p‐p)π Systems. Part 41. 1,2,3‐Triphosphetenes, First Examples of a New Class of Phosphorus Heterocycles.

B. Krebs, J. Grobe, D. L. Van, 1996 .

Neue Phospha- und Arsa-Heterocyclen aus Cyclophosphanen bzw. -arsanen (ECF3)n (E = P, As; n = 4, 5) und 1,3-Dienen / Novel Phospha- and Arsa-Heterocycles from Cyclophosphanes or -arsanes (ECF3)n (E = P, As; n = 4, 5) and 1,3-Dienes

J. Grobe, Burkhardt Broschk, A. Karst, 1995 .

New Aspects in the Chemistry of Fluorophosphaalkenes: Stable Phosphorus Ylides R3 ′P=C(NR2)P(F)CF3 from F3CP=C(F)NR2.

J. Grobe, D. L. Van, J. Nientiedt, 1989 .

Diels- Aider- Addukte des Diphosphens F3CP = PCF3 / Diels-Alder Adducts of the Diphosphene F3P =PCF3

J. Schulze, J. Grobe, D. L. Van, 1985 .

Synthesis of (2-X,3-Y-phenyl)dimethylphosphanes (X, Y = Me2P, H; Me2P, F; Br, F) and their complexes with PdCl2

L. I. Goryunov, V. D. Shteingarts, R. Mews, 2011 .

Reaction of chloropentafluorobenzene and 2,3- and 2,6-difluorobromobenzenes with lithium dimethylphosphide

E. Würthwein, L. I. Goryunov, V. D. Shteingarts, 2009 .

Compounds R1R2EMMe3 (E = P, As; M = Si, Sn) - Convenient and Versatile Reagents for the Syntheses of Tertiary (Fluoroaryl)phosphanes and -arsanes

L. I. Goryunov, V. D. Shteingarts, J. Grobe, 2008 .

Me2ESiMe3 (E = As, N, P) Compounds—Efficient Reagents for Replacement of the Fluorine Atom by Me2E Group in the Complex [(η6-1-F-3,5-Me2C6H3)(η5-C5EtMe4)Rh](CF3SO3)2 >

L. I. Goryunov, V. D. Shteingarts, J. Grobe, 2004 .

Bistrifluoromethylphosphorus Derivatives of Transition Metal Carbonyls

H. Emeléus, J. Grobe, 1962 .

PERFLUOROMETHYL‐ELEMENT LIGANDS. XIX. COORDINATING ABILITY OF LIGANDS OF THE TYPE MENP(CF3)3‐N (N = 0‐3)

J. Grobe, J. Apel, 1979 .

Reaktive EC(p‐p)π‐Systeme, XXIII. Unerwartete Isomerisierung des Perfluorisopropylidenphosphans F3CPC(CF3)2 zum Perfluorisopropenylphosphan F3CPF(F3C)CCF2

J. Grobe, D. L. Van, 1990 .

Perfluoromethyl‐Element‐Ligands. Part 35. Reactivity of Metallated Phosphanes and Arsanes of the Type π‐C5H5(CO)3MER2 (M: Cr, Mo, W; E: P, As; R: CF3, CN)

R. Haubold, J. Grobe, 1986 .

Perfluormethyl-Element Ligands. Part 40. Chromium and Tungsten Pentacarbonyl Complexes of Bis(trifluoromethyl)phosphanes of the Type (F3C)2PX′ (X′: H, F, Cl, Br, I, NEt2).

W. Meyring, J. Grobe, D. L. Van, 1990 .

Reaktive E=C(p‐p)π‐Systeme. 54 [1] Reaktionen des Perfluor‐2‐arsapropens, F3CAs=CF2 (1), mit H‐aciden Verbindungen Me2EH (E = N, P, As) und MeE′H (E′ = O, S, Se)

E. Würthwein, T. Albers, A. H. Maulitz, 2005 .

Reaktive E=C(p-p)π-Systeme, VI [1] Reaktionen des Phosphaalkens F3CP=CF2 mit H-aciden Verbindungen/Reactive E = C(p-p)π-Systems, VI [1] Reactions of the Phosphaalkene F3CP = CF2 with H Acidic Compounds

J. Grobe, J. Nientiedt, Duc Le Van, 1986 .

PERFLUOROMETHYL ELEMENT LIGANDS. XXIX. PREPARATION AND SPECTROSCOPIC STUDIES OF M(CO)4L2 COMPLEXES (M = CR, MO, W; L = ME2PSME, ME2PSEME, (CF3)2PSME, (CF3)2PSEME)

J. Grobe, D. L. Van, M. Koehne-Waechter, 1985 .

Perfluoromethyl-Element Ligands. Part 39. Chromium Pentacarbonyl Complexes of Diels-Alder Adducts of Bis(trifluoromethyl)diphosphene.

J. Schulze, B. Krebs, J. Grobe, 1990 .

Diffuse reflectance infrared fourier transform (DRIFT) spectroscopy in the preservation of historical monuments: Studies on salt migration

J. Grobe, Chr. Zeine, 1997 .

Regioselectivity of 5, 6, 7, 8‐Tetrafluoroquinoline and 6‐X‐Trifluoroquinoline (X = CF3, H) in Reactions with Nucleophiles

H. Rabeneck, V. D. Shteingarts, E. Panteleeva, 2003 .

Notizen: Neue fluorhaltige Phosphorylide aus 6-Phenyl-3-pentafluorphenoxy-tetrafluorcyclohexa- 2,4-dien-1-on und Triphenylphosphan / Novel Fluorine-Containing Phosphorus Ylids from 6-Phenyl-3-pentafluorophenoxy-tetrafluorocyclohexa- 2,4-dien-1-one and Triphenylphosphane

B. Krebs, M. Läge, H. Wiese, 1995 .

Novel Fluorine‐Containing Phosphorus Ylides from 6‐Phenyl‐3‐ pentafluorophenoxytetrafluorocyclohexa‐2,4‐dien‐1‐one and Triphenylphosphane.

B. Krebs, H. Wiese, J. Grobe, 1995 .

SILAETHENES. XI. IRON CARBONYL COMPLEXES FE(CO)4L WITH PHOSPHINOETHYLSILACYLCLOBUTANE LIGANDS

N. Auner, J. Grobe, 1982 .

Silaethene. X. Phosphanoethylsilacyclobutane

N. Auner, J. Grobe, 1982 .

Characterization of the equilibrium axial(trifluoromethyl)tetrafluorophosphorane .dblarw. equatorial(trifluoromethyl)tetrafluorophosphorus by matrix isolation FTIR spectroscopy

H. Willner, H. Oberhammer, J. Grobe, 1992 .

TOF-SIMS and FT-IR investigations of surface modified silicon wafers — porous silicon

A. Benninghoven, B. Hagenhoff, K. Meyer, 1994 .