Institution
Freiberg University of Mining and Technology
Education•Freiberg, Sachsen, Germany•
About: Freiberg University of Mining and Technology is a education organization based out in Freiberg, Sachsen, Germany. It is known for research contribution in the topics: Microstructure & Crystal structure. The organization has 4312 authors who have published 8954 publications receiving 155130 citations. The organization is also known as: Bergakademie Freiberg & TU Bergakademie Freiberg.
Papers published on a yearly basis
Papers
More filters
•
18 Jul 1996TL;DR: Random Closed Sets I--The Boolean Model. Random Closed Sets II--The General Case.
Abstract: Mathematical Foundation. Point Processes I--The Poisson Point Process. Random Closed Sets I--The Boolean Model. Point Processes II--General Theory. Point Processes III--Construction of Models. Random Closed Sets II--The General Case. Random Measures. Random Processes of Geometrical Objects. Fibre and Surface Processes. Random Tessellations. Stereology. References. Indexes.
4,079 citations
••
TL;DR: The MATLAB toolbox MTEX as discussed by the authors provides a unique way to represent, analyse and interpret crystallographic preferred orientation, i.e. texture based on integral (pole figure) or individual orientation (EBSD) measurements.
Abstract: The MATLAB™ toolbox MTEX provides a unique way to represent, analyse and interpret crystallographic preferred orientation, i.e. texture, based on integral (“pole figure”) or individual orientation (“EBSD”) measurements. In particular, MTEX comprises functions to import, analyse and visualize diffraction pole figure data as well as EBSD data, to estimate an orientation density function from either kind of data, to compute texture characteristics, to model orientation density functions in terms of model functions or Fourier coefficients, to simulate pole figure or EBSD data, to create publication ready plots, to write scripts for multiple use, and others. Thus MTEX is a versatile free and open-source software toolbox for texture analysis and modeling.
1,836 citations
••
TL;DR: A novel algorithm for ODF (orientation density function) estimation from diffraction pole figures is presented which is especially well suited for sharp textures and high-resolution pole figures measured with respect to arbitrarily scattered specimen directions.
Abstract: A novel algorithm for ODF (orientation density function) estimation from diffraction pole figures is presented which is especially well suited for sharp textures and high-resolution pole figures measured with respect to arbitrarily scattered specimen directions, e.g. by area detectors. The estimated ODF is computed as the solution of a minimization problem which is based on a model of the diffraction counts as a Poisson process. The algorithm applies discretization by radially symmetric functions and fast Fourier techniques to guarantee smooth approximation and high performance. An implementation of the algorithm is freely available as part of the texture analysis software MTEX.
906 citations
••
Max Planck Society1, Leibniz Institute for Neurobiology2, Monash University, Clayton campus3, Open University4, University of Montpellier5, Thermo Electron6, German Criminal Police Office7, University of Würzburg8, University of Victoria9, University of Gothenburg10, Royal Canadian Mounted Police11, University of Tasmania12, University of Houston13, University of Mainz14, Paul Scherrer Institute15, Carnegie Institution for Science16, University of Kiel17, University of Greifswald18, University of Edinburgh19, Oregon State University20, Heidelberg University21, Utrecht University22, National Institute of Polar Research23, University of Utah24, Freiberg University of Mining and Technology25, United States Geological Survey26, Chinese Academy of Sciences27, University of Pavia28, University of Lausanne29, University of Tübingen30, Los Alamos National Laboratory31, University of Melbourne32
TL;DR: In this paper, the authors present new analytical data of major and trace elements for the geological MPI-DING glasses KL2-G, ML3B-G and ATHO-G.
Abstract: We present new analytical data of major and trace elements for the geological MPI-DING glasses KL2-G, ML3B-G, StHs6/80-G, GOR128-G, GOR132-G, BM90/21-G, T1-G, and ATHO-G. Different analytical methods were used to obtain a large spectrum of major and trace element data, in particular, EPMA, SIMS, LA-ICPMS, and isotope dilution by TIMS and ICPMS. Altogether, more than 60 qualified geochemical laboratories worldwide contributed to the analyses, allowing us to present new reference and information values and their uncertainties (at 95% confidence level) for up to 74 elements. We complied with the recommendations for the certification of geological reference materials by the International Association of Geoanalysts (IAG). The reference values were derived from the results of 16 independent techniques, including definitive (isotope dilution) and comparative bulk (e.g., INAA, ICPMS, SSMS) and microanalytical (e.g., LA-ICPMS, SIMS, EPMA) methods. Agreement between two or more independent methods and the use of definitive methods provided traceability to the fullest extent possible. We also present new and recently published data for the isotopic compositions of H, B, Li, O, Ca, Sr, Nd, Hf, and Pb. The results were mainly obtained by high-precision bulk techniques, such as TIMS and MC-ICPMS. In addition, LA-ICPMS and SIMS isotope data of B, Li, and Pb are presented.
889 citations
••
TL;DR: It is shown how application of fluorination is used to enable a number of reactions, to improve materials properties and even open up new fields of research.
Abstract: Interactions of “organic fluorine” have gained great interest not only in the context of crystal engineering, but also in the systematic design of functional materials. The first part of this tutorial review presents an overview on interactions known by organic fluorine. This involves π–πF, C–F⋯H, F⋯F, C–F⋯πF, C–F⋯π, C–F⋯M+, C–F⋯CO and anion–πF interactions, as well as other halogen bonds. The effect of the exchange of H vs. F is discussed by means of several examples and a short introduction to the young field of “fluorous” chemistry is given. The second part is dedicated to numerous applications of fluorine and fluorous interactions. It is shown how application of fluorination is used to enable a number of reactions, to improve materials properties and even open up new fields of research.
885 citations
Authors
Showing all 4394 results
Name | H-index | Papers | Citations |
---|---|---|---|
Yang Gao | 168 | 2047 | 146301 |
Stefan Grimme | 113 | 680 | 105087 |
Fei Wang | 107 | 1824 | 53587 |
Michael D. Ward | 95 | 823 | 36892 |
K. V. Tokmakov | 85 | 195 | 39800 |
Thomas Heine | 84 | 423 | 24210 |
Jürgen Heinze | 74 | 642 | 24347 |
Christian M. Ringle | 74 | 207 | 68196 |
Thomas Mikolajick | 63 | 533 | 15814 |
Michael Fritsch | 59 | 388 | 14403 |
Paolo Colombo | 59 | 339 | 12938 |
Andreas Menzel | 57 | 397 | 12274 |
Lothar Ratschbacher | 57 | 181 | 12198 |
Stephen D. Evans | 55 | 363 | 11281 |
Filipp Furche | 54 | 143 | 14579 |