PUBLICATIONS
|
[1] |
Punktfehlstellen
in Oxidmischphasen: (I) Fehlstellenthermodynamik der Mischphasen (CoxMg1-x)O und
(CoxMg1-x)2SiO4 |
|
[2] |
Point Defects and Cation Diffusion in Magnetite R. Dieckmann and H.
Schmalzried |
|
[3] |
Point Defects in Oxide Solid
Solutions: (III) Mobilities of Cations and Vacancies in (Co,Ni)O- and
(Co,Mg)O-Solid Solutions and the Calculation of Correlation Factors
|
|
[4] |
Defects and Cation Diffusion in
Magnetite (I) |
|
[5] |
Defects and Cation Diffusion in
Magnetite (II) |
|
[6] |
Neue
Ergebnisse zum Ionentransport in Magnetit und ihre Bedeutung für die Eisenoxidation |
|
[7] |
Cobaltous Oxide Point Defect
Structure and Non-Stoichiometry, Electrical Conductivity, Cobalt Tracer
Diffusion |
|
[8] |
Defects and Cation Diffusion in
Magnetite (III). Tracerdiffusion of Foreign Cations as a Function of
Temperature and Oxygen Potential |
|
[9] |
Investigation of Magnetic Crystals by
the ATR-Method |
|
[10a] |
Point Defects in Magnetite (Fe3-dO4) and Their Mobilities
|
|
[10b] |
Point Defects in Magnetite (Fe3-dO4) and Their Mobilities
|
|
[11] |
Kinetics of Dense Magnetite Formation
During Oxidation of Wüstite and Reduction of Hematite in CO/CO2
Gas Mixtures |
|
[12] |
Relationships Between the Defect
Structure and the Transport Properties of Magnetite and the Maximal Growth
Rate of Dense Magnetite Scales During Simple Reactions in the System
Iron-Oxygen |
|
[13] |
Survey on the Relationships Between
the Kinetics of the Formation of Dense Magnetite During Simple Reactions in
the System Iron-Oxygen and the Point Defect Structure of Magnetite
|
|
[14] |
Relationships Between Defect
Structure, Transport Properties and the Growth Rate of Dense Magnetite Scales
During Simple Reactions in the System Iron-Oxygen |
|
[15] |
Phasen und
Gleichgewichte im System Eisen-Sauerstoff |
|
[16] |
Defects and Cation Diffusion in
Magnetite IV: Nonstoichiometry and Point Defect Structure of Magnetite (Fe3-dO4) |
|
[17] |
The Determination of Chemical
Diffusivity in Cobaltous Oxide by Means of the Electrical Conductivity
|
|
[18] |
Diffusion
in Oxiden und Wachstum von Oxidschichten |
|
[19] |
Point Defects in Oxide Solid
Solutions: (IV) Correlated Diffusion of Cations and Vacancies in
(Co,Mg)O-Mixed Crystals |
|
[20] |
Point Defects and Transport
Properties of Binary and Ternary Oxides |
|
[21] |
Defects and Cation Diffusion in
Magnetite (V): Electrical Conduction, Cation Distribution and Point Defects
in Fe3-dO4 |
|
[22] |
Comments on "Phase Equilibria in
the Mn2O3-Mn3O4-MnO System in CO2-H2
Mixtures |
|
[23] |
Defect Structure and Transport
Properties of Manganese Oxides |
|
[24] |
Defect Structure and Transport
Properties of the Manganese Oxides Manganosite (Mn1-DO) and Hausmannite (Mn3-dO4) |
|
[25] |
Defect Structure and Transport
Properties of Two Manganese Oxides: Manganosite and Hausmannite |
|
[26] |
Defect Structure and Transport
Properties of Manganese Oxides: (I) The Nonstoichiometry of Manganosite (Mn1-DO) |
|
[27] |
Defect Structure and Transport
Properties of Manganese Oxides: (II) The Nonstoichiometry of Hausmannite (Mn3-dO4) |
|
[28] |
Innere
Reduktion von Eisen-Mangan-Mischoxiden vom Typ (Fe,Mn)1-DO |
|
[29] |
Einführung
in thermodynamische und kinetische Grundlagen von Festkörperreaktionen |
|
[30] |
Defects and Cation Diffusion in
Magnetite (VI): Point Defect Relaxation and Correlation in Cation Tracer
Diffusion |
|
[31] |
Defects and Cation Diffusion in
Magnetite (VII): Diffusion Controlled Formation of Magnetite During Reactions
in the Iron-Oxygen System |
|
[32] |
Defect Structure and Transport
Properties of Manganese Oxides: (III) Relaxation Kinetics of Manganosite (Mn1-DO) in CO/CO2 Gas Mixtures
|
|
[33] |
Point Defect Relaxation in Manganosite
(Mn1-DO) After Sudden Oxygen Activity
Changes in CO/CO2 Gas Mixtures at High Temperatures |
|
[34] |
Defects and Cation Diffusion in
Magnetite (VIII): Migration Enthalpies for Iron and Impurity Cations
|
|
[35] |
Internal Reduction of Wüstite Type
Mixed Iron Manganese Oxides |
|
[36] |
Diffusion of Cations and of Point
Defects in Magnetite (Fe3-dO4) |
|
[37] |
Twin Boundaries in Hausmannite (a-Mn3-dO4) |
|
[38] |
Defect Structure and Transport
Properties of Mixed Iron-Manganese-Oxides |
|
[39] |
Point Defects in Ceramic Oxides: How They
Affect Material Properties and the Kinetics of Solid State Reactions
|
|
[40] |
Thermodynamics of Iron Manganese
Mixed Oxides at High Temperatures |
|
[41] |
The Question of Vacancy Clusters in
Manganosite Mn1-DO |
|
[42] |
True Chemical Diffusivity and Surface
Reactivity of Cobaltous Oxide |
|
[43] |
The Nonstoichiometry and the Point
Defect Structure of Cuprous Oxide (Cu2-dO) |
|
[44] |
The High Temperature Phase Diagram of
the System Cu-O in the Stability Region of Cuprous Oxide (Cu2-dO) |
|
[45] |
Kinetics of the Oxidation of Manganosite
(Mn1-DO) to Hausmannite (ß‑Mn3-dO4) at High Temperatures
|
|
[46] |
Transition Metal Oxide - Platinum
Alloy Phase Equilibria and Their Consequences for Non-Stoichiometry
Measurements |
|
[47] |
Non-Stoichiometry and Point Defect Structure of Monoclinic and
Tetragonal Zirconia (ZrO2+d) |
|
[48] |
Correlation Factors for Diffusion in
Binary Random Alloys With FCC‑Structure |
|
[49] |
Limits of the Thermodynamic Stability
of Cobalt-Iron-Manganese Mixed Oxides at 1200 °C |
|
[50] |
Electrochemical Investigation of the
Oxygen Activity at the Manganosite-Hausmannite Equilibrium |
|
[51] |
The Limited Role of Cation Bulk
Diffusion in the Oxidation of Pure Iron to Magnetite |
|
[52] |
Non-Stoichiometry and Point Defects
in Zirconia |
|
[53] |
Non-Stoichiometry and Cation Tracer
Diffusion in Cobalt-Iron-Manganese Mixed Oxide Spinels |
|
[54] |
Kinetics and Morphology of Spinel
Formation by Solid State Reaction in the CoFe-O System |
|
[55] |
Non-Stoichiometry and Point Defect
Structure in Cobaltous Oxide |
|
[56] |
Point Defects and Diffusion in
Non-Stoichiometric Metal Oxides |
|
[57] |
Heating With Light: Growing Ceramic
Single Crystals at Very High Temperatures |
|
[58] |
Point Defects and Cation Tracer
Diffusion in (Co,Fe,Mn)3-dO4 Spinels: I. Mixed Spinels (CoxFe2yMny)3-dO4 |
|
[59] |
Zirconia - A Non-Inert Material
Reacting with Platinum and Oxygen Containing Gases |
|
[60] |
Preparation of Uniformly CaO-Doped
Zirconia |
|
[61] |
On the Use of Chemical
Reequilibration to Determine True Diffusivity in CoO |
|
[62] |
In Situ Formation of Metal-Ceramic
Microstructures, Including Metal-Ceramic Composites, Using Reduction
Reactions |
|
[63] |
Point Defects and Cation Tracer
Diffusion in (Co,Fe,Mn)3-dO4 Spinels: II. Mixed Spinels (CoxFezMn2z)3-dO4 |
|
[64] |
Point Defects and Transport in
Hematite (Fe2O3-e) |
|
[65] |
Point Defects and Cation Tracer
Diffusion in (Co,Fe,Mn)3-dO4 Spinel Solid Solutions |
|
[66] |
Oxygen Content and Point Defects in
Pure and Doped Zirconia (ZrO2) |
|
[67] |
Point Defects and Cation Tracer
Diffusion in (CoxFe1-x)3-dO4 Spinels |
|
[68] |
Sol-Gel Synthesis of Chromium-Doped
Forsterite |
|
[69] |
Preparation of Olivines (FexMg1-x)2SiO4 by
Sol-Gel Technique |
|
[70] |
Oxidation of Aluminum Nitride
Substrates |
|
[71] |
Oxide Film Formation on Aluminum
Nitride Substrates Covered with thin Aluminum Layers |
|
[72] |
Nonstoichiometry and Thermodynamics
of (Fe,Mn)1-DO Solid Solutions at 1200 °C |
|
[73] |
Variation of the Oxygen Content in
Tetragonal, Calcium Oxide-Doped Zirconia |
|
[74] |
Thermodynamics of the Solid Solution
(Fe,Co)1-DO at 1200 °C |
|
[75] |
In Situ Formation of Metal-Ceramic
Microstructures by Partial Reduction Reactions |
|
[76] |
Monte Carlo Simulation of Cation
Transport via Vacancies in Spinel Solid Solutions: One Type of Cation
Exchange Prevails |
|
[77] |
In Situ Formation of Metal-Ceramic
Composites and Ductile Phase Toughened Ceramics Using Partial Reduction
Reactions |
|
[78] |
Defects and Transport in the Solid
Solution (Co,Fe)1-DO at 1200 °C - I. Nonstoichiometry |
|
[79] |
Defects and Transport in the Solid
Solution (Co,Fe)1-DO at 1200 °C - II. Cation Tracer Diffusion and Electrical
Conductivity |
|
[80] |
Growth of Cr4+-rich, Chromium-Doped
Forsterite Single Crystals by the Floating Zone Method |
|
[81] |
Formation of a New Aluminum Oxide with
the Composition AlO2 by Interfacial Reaction between Pt and a-Al2O3
|
|
[82] |
Point Defects and Cation Tracer
Diffusion in (CoxMn1-x)3-dO4 Spinels |
|
[83] |
Model Calculations of Phase
Stabilities of Oxide Solid Solutions in the CoFeMnO System at 1200 °C
|
|
[84] |
In Situ Formation of Metal-Ceramic
Composites and Ductile Phase Toughened Ceramics by Reduction Reactions
|
|
[85] |
In Situ Formation of Metal-Ceramic
Microstructures in the Ni-Al-O System by Partial Reduction Reactions
|
|
[86] |
Oxygen Transport in Aluminum Nitride
Substrates |
|
[87] |
Growth of Nickel Aluminate Single
Crystals by the Floating Zone Method |
|
[88] |
Monte Carlo Simulation of Cation
Diffusion via Vacancies in Quasi-Binary Spinel Solid Solutions Involving
Multiple Types of Cation-Vacancy Exchanges |
|
[89] |
9.6 Ghz and 34 GHz EPR Studies of
Chromium-Doped Forsterite |
|
[90] |
Oxygen Partial Pressure Dependence of
the Oxygen Content of Zirconia-Based Electrolytes |
|
[91] |
Platinum - A Non-Inert Material Reacting
with Oxides |
|
[92] |
In-Situ Formation of Metal-Ceramic
Microstructures by Partial Reduction Reactions |
|
[93] |
In-Situ Formation of Ductile Phase
Toughened Ceramics by Partial Reduction Reactions in the Ni-Al-O System
|
|
[94] |
Effect of Dopants on the In-Situ
Formation of Metal-Ceramic Microstructures by Partial Reduction Reactions
|
|
[95] |
Formation of an Aluminum Peroxide
Oxide, AlO2, by Interfacial Reaction Between Pt and aAl2O3
|
|
[96] |
Oxygen Activity Dependent Dissolution
of Nickel from Nickel Oxide into Platinum |
|
[97] |
Point Defects in Oxide Spinel Solid
Solutions of the Type (Co,Fe,Mn)3-dO4 at 1200 °C |
|
[98] |
Metal-Ceramic Microstructure Control
in Partial Reduction Reactions in the Model System Fe-Mn-O by Doping
|
|
[99] |
Further Characterization of the
Aluminum Peroxide Oxide, AlO2, Formed by Interfacial Reaction
Between Pt and a-Al2O3
|
|
[100] |
In Situ Metal-Ceramic Microstructures
by Partial Reduction Reactions in the Ni-Al-O system and the Role of ZrO2
|
|
[101] |
Control of the Morphology
of Metal-Ceramic Microstructures by Impurity Addition in the Model System
Fe-Mn-O |
|
[102] |
Displacement Reactions in the Ni-Al-O
System Resulting in Periodic Layer Structures |
|
[103] |
Metal-Ceramic Microstructures in the
Fe-Mn-O System - Morphology Control by Impurity Addition |
|
[104] |
Ductile Phase Toughened Ceramics by
Partial Reduction Reactions in the Ni-Al-O System: Mechanical Properties and
Effect of Dopants |
|
[105] |
Point Defects and Cation Diffusion in
Cobaltous Oxide |
|
[106] |
Non-Stoichiometry and Cation Tracer
Diffusion in the Magnetite-Ulvöspinel Solution, (Fe,Ti)3-dO4 |
|
[107] |
Nonstoichiometry and Point Defect Structure of Olivines, (FexMg1-x)2SiO4 T.-L. Tsai and R. Dieckmann |
|
[108] |
Point Defects and Cation Tracer
Diffusion in (CrxFe1-x)3-dO4 |
|
[109] |
Quenching of the Fluorescence from
Chromium (III) Ions in Chromium-Doped Forsterite by an Aluminum Co-dopant
|
|
[110] |
Growth of Olivine, (FexMg1-x)2SiO4, Single
Crystals With Uniform Composition Along the Growth Direction by the Floating Zone
Method |
|
[111] |
Point Defects and Cation Tracer
Diffusion in (CrxFe1-x)3-dO4 Spinels |
|
[112] |
Point Defects and Transport of Matter
and Charge in Non-Stoichiometric Oxides |
|
[113] |
Variation of the Oxygen Content and
Point Defects in Olivines, (FexMg1-x)2SiO4+d, 0.2 £ x £ 1.0 |
|
[114] |
Variation of the Oxygen Content and
Point Defects in Tephroite, Mn2SiO4+d |
|
[115] |
Oxygen Activity Dependence of the
Chromium (IV) Population in Chromium-Doped Forsterite Crystals Grown by the
Floating Zone Technique |
|
[116] |
Point Defects and Transport of Matter
and Charge in Non-Stoichiometric Oxides (II) |
|
[117] |
Floating-Zone Growth and
Characterization of Fe2SiO4 Single Crystals |
|
[118] |
Growth of (FexMg1-x)2SiO4 Single Crystals
by the Double Pass Floating Zone Method |
|
[119] |
Influence of Different Divalent
Co-Dopants on the Cr4+ Content of Cr-Doped Y3Al5O12
|
|
[120] |
Point Defects and Cation Tracer
Diffusion in (TixFe1-x)3-dO4: I. Nonstoichiometry
and Point Defects |
|
[121] |
Point Defects and Cation Tracer
Diffusion in (TixFe1-x)3-dO4: II. Cation Tracer
Diffusion |
|
[122] |
Point
Defects and Transport of Matter and Charge in Olivines, (FexMg1−x)2SiO4 |
|
[123] |
Cation Tracer Diffusion in Oxides
|
|
[124] |
Contributions of Bulk and
Near-Boundary Regions to the Variation of the Oxygen Content in Cu2-dO |
|
[125] |
Point Defects and Transport in Binary
and Ternary, Non-Stoichiometric Oxides |
|
[126] |
Point Defects and Transport in
Non-Stoichiometric Oxides: Solved and Unsolved Problems |
|
[127] |
The Temperature-Dependent Cation
Distribution in Magnetite |
|
[128] |
The Synthesis of Vanadium-Doped
Forsterite by the H2O2-Assisted Sol-Gel Method, and the
Growth of Single Crystals of Vanadium-Doped Forsterite by the Floating Zone
Method |
|
[129] |
Sodium Tracer Diffusion in an
Alkaline-Earth Boroaluminosilicate Glass |
|
[130] |
Influence of 'Water' on the Diffusion
of Sodium in Fused Quartz and in an Alkaline-Earth Aluminoborosilicate Glass
|
|
[131] |
Bulk Diffusion Measurements to Study
the Effectiveness of Barrier Layers |
|
[132] |
Sodium Tracer Diffusion in a
Glass-Ceramic Containing Nano-Sized Spinel Crystals |
|
[133] |
The Effect of Water Incorporation on
the Diffusion of Sodium in an Alkaline-Earth Boroaluminosilicate Glass |
|
[134] |
Effect of Water Incorporation on the
Diffusion of Sodium in Type I Silica Glass |
|
[135] |
Impurity Controlled Phase Formation at
Platinum-Sapphire Interfaces |
|
[136] |
Bulk Diffusion Measurements to Study
the Effectiveness of Barrier Layers: I. Mathematical Treatment |
|
[137] |
Bulk Diffusion Measurements to Study
the Effectiveness of Barrier Layers: II. Exchange of Sodium Between LCD Glass
Substrates with Different Barrier Layers |
|
[138] |
Humidity Sensors Based on Pentacene
Thin-Film Transistors |
|
[139] |
Influence of Water on the Tracer
Diffusion of Sodium in Glasses |
|
[140] |
Deviation from Stoichiometry and
Point Defects in (ZnxMn1-xFe2)1-d/3O4 |
|
[141] |
Deviation from Stoichiometry and Point Defects in(Znx‑y/4Mn1‑x‑3y/4Fe2+y)1‑d/3O4 |
|
[142] |
Influence of Impurities on the Oxygen
Activity-Dependent Variation of the Oxygen Content of a Commercial, CaO-Doped
Zirconia |
|
[143] |
Solution and Transport of Water in
Oxides |
|
[144] |
Incorporation of Water into Glasses
and its Influence on the Diffusion of Cations, Including the Creation of
Diffusion Barrier Layers |
|
[145] |
Full Recovery of Electron Damage in
Glass at Ambient Temperatures K.A. Mkhoyan, J. Silcox, A. Ellison,
D. Ast and R. Dieckmann Phys. Rev. Lett., 96 [2006] 205506(1)-205506(4) |
|
[146] |
Cation Tracer Diffusion in the
Thermoelectric Materials Cu3Mo6Se8 and
“β‑Zn4Sb3” E.
Chalfin, H. Lu and R. Dieckmann Solid State Ionics, 178 (5-6) [2007] 447-456. (article available at http://dx.doi.org/10.1016/j.ssi.2007.01.026) |
|
[147] |
Sodium Tracer Diffusion in Glasses of
the Type (CaO∙Al2O3)x(2 SiO2)1−x
H. Lu
and R. Dieckmann J. Non-Cryst. Solids, 353 (26) [2007] 2528-2544. (article available at http://dx.doi.org/10.1016/j.jnoncrysol.2007.04.024) |
|
[148] |
Predicting Anisotropic Electrical Conductivities
of a Magnetic Insulator on the Basis of its Magnetic Properties K.H. Lee, R. Dieckmann, C. Lee and
M.-H. Whangbo Chem. Mater., 19 (18) [2007] 4393-4395. |
|
[149] |
Does the Valence
State of an Ion Affect its Diffusivity? - Part I: Oxygen Activity Dependence
of the Diffusion of Iron in Alumina-Doped MgO E. Chen, T.-L. Tsai and R. Dieckmann Solid State Sciences, 10 (6) [2008] 735-745. (article available at http://dx.doi.org/10.1016/j.solidstatesciences.2007.03.021) |
|
[150] |
Floating-Zone Growth and Characterization of Single
Crystals of Cobalt Orthosilicate, Co2SiO4 Q. Tang and R.
Dieckmann J. Cryst. Growth, 317 (1) [2011] 119-127. (article
available at http://dx.doi.org/10.1016/j.jcrysgro.2011.01.014) |
|
[151] |
Sodium Tracer Diffusion in Glasses of
the Type (Na2O)0.2[(BO1.5)x(SiO2)1−x]0.8 X. Wu and R. Dieckmann J. Non-Cryst. Solids,
357 (15) [2011] 2846-2856.
(article available at http://dx.doi.org/10.1016/j.jnoncrysol.2011.03.020) |
|
[152] |
Point Defects and Orientation-dependent Transport of
Matter and Charge in Iron-containing Olivines T.-L. Tsai, K.-D. Becker and R. Dieckmann Solid
State Ionics, 194 (1) [2011]
17-32. (article available at http://dx.doi.org/10.1016/j.ssi.2011.05.001) |
|
[153] |
Sodium Tracer Diffusion in Glasses of
the Type (Na2O)0.2(B2O3)y(SiO2)0.8−y X. Wu, A.K.
Varshneya and R. Dieckmann J. Non-Cryst.
Solids, 357 (21) [2011] 3661-3669.
(article available at http://dx.doi.org/10.1016/j.jnoncrysol.2011.06.026) |
|
[154] |
Sodium Tracer Diffusion in a Sodium
Aluminosilicate Glass X. Wu and R.
Dieckmann J.
Non-Cryst. Solids, 357 (22-23)
[2011] 3797-3802. (article available at http://dx.doi.org/10.1016/j.jnoncrysol.2011.07.038) |
|
[155] |
Orientation, Oxygen Activity
and Temperature Dependencies of the Diffusion of Cobalt in Cobalt
Orthosilicate, Co2SiO4 Q. Tang and R.
Dieckmann Solid
State Ionics, 212 [2012] 66-76.
(article available athttp://dx.doi.org/10.1016/j.ssi.2012.02.016) |
|
[156] |
Sodium Tracer Diffusion in
Sodium Boroaluminosilicate Glasses X. Wu, J.D.
Moskowitz, J.C. Mauro, M. Potuzak, Q. Zheng and R. Dieckmann J.
Non-Cryst. Solids, 358 (12-13)
[2012] 1430-1437. (article available at http://dx.doi.org/10.1016/j.jnoncrysol.2012.03.004) |
|
[157] |
Floating-Zone Growth and
Characterization of Single Crystals of Manganese Orthosilicate, Mn2SiO4 Q. Tang and R.
Dieckmann J.
Cryst. Growth, 361 [2012] 89-97. (article available at http://dx.doi.org/10.1016/j.jcrysgro.2012.08.054) |
|
[158] |
Orientation, Oxygen Activity and
Temperature Dependencies of the Diffusion of Manganese in Manganese
Orthosilicate, Mn2SiO4 Q. Tang and R.
Dieckmann Solid State Ionics, 228 [2012] 70-79. (article available
at http://dx.doi.org/10.1016/j.ssi.2012.09.008) |
for a list of publications of Rüdiger Dieckmann in the form of theses and access to them please click here
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last
update: 01/28/2013