Result for query "powder"

File //sincris/iucr/abstracts/cga17.html

• line 103: Structure Determination Using Powder Data
• line 479: Materials VIII Powder Diffraction
• line 839: Databases II: Inorganic, Powder, Polymer, Other

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• line 85: (D0081) MODERN POWDER DIFFRACTION IN MATERIALS SCIENCE

File //sincris/iucr/abstracts/title/01.02.html

• line 83: (E0840) CURVED IMAGE-PLATES FOR SYNCHROTRON RADIATION HIGH RESOLUTION POWDER DIFFRACTION AND STUDIES OF AMORPHOUS SYSTEMS
• line 113: (E1176) VACUUM CHAMBER FOR SYNCHROTRON POWDER DIFFRACTION
• line 128: (S0152) NEW HIGH- AND LOW-TEMPERATURE FACILITIES FOR POWDER DIFFRACTION AT DARESBURY LABORATORY

File //sincris/iucr/abstracts/title/01.05.html

• line 32: (E1232) STUDIES OF THE SYNTHESIS AND TRANSFORMATION OF MATERIAL USING IN SITU TIME-RESOLVED POWDER DIFFRACTION
• line 91: (S0596) ANOMALOUS DISPERSION APPLIED TO A TIN-MORDENITE POWDER SAMPLE AT THE ESRF

File //sincris/iucr/abstracts/title/01.07.html

• line 57: (E0230) LOW-MELTING POINT ORGANIC CRYSTAL STRUCTURES BY HIGH RESOLUTION NEUTRON POWDER DIFFRACTION

File //sincris/iucr/abstracts/title/01.09.html

• line 30: (E0994) NEW MULTIDETECTORS AND MONOCHROMATORS ON ILL NEUTRON POWDER DIFFRACTOMETERS
• line 41: (E1442) TWO NEW TOF NEUTRON POWDER DIFFRACTOMETERS AT KENS
• line 78: (E0638) USING BRAGG OPTICS FOR HIGH RESOLUTION NEUTRON POWDER DIFFRACTION

File //sincris/iucr/abstracts/title/02.03.html

• line 47: (E0111) CRYSTAL STRUCTURES FROM POWDER DATA BY DIRECT METHODS

File //sincris/iucr/abstracts/title/02.05.html

• line 32: (E0067) A NEW ALGORITHM FOR SOLVING COMPLEX POWDER STRUCTURES
• line 38: (E0212) SOLUTION AND REFINEMENT OF DRUG STRUCTURES FROM POWDER DATA
• line 44: (E0969) ZEOLITE STRUCTURE DETERMINATION FROM POWDER DATA: COMPUTER-BASED INCORPORATION OF CHEMICAL INFORMATION
• line 50: (S0245) POWDER STRUCTURES FROM LIMITED DATA SETS
• line 56: (S0689) DETERMINATION OF MOLECULAR CRYSTAL STRUCTURES FROM X-RAY POWDER DIFFRACTION BY MONTE CARLO METHODS
• line 62: (S0446) CRYSTAL CHEMISTRY FROM POWDER DATA
• line 68: (E0874) INFORMATION ON SYMMETRY IN POWDER DIFFRACTION DATA.
• line 74: (S0679) THE TANGENT FORMULA DERIVED FROM PATTERSON FUNCTION ARGUMENTS: A USEFUL TOOL FOR SOLVING ZEOLITE STRUCTURES FROM X-RAY POWDER DATA.
• line 79: (E0451) DIRECT PHASING FROM POWDER DATA: THE EXTRA OPTIMIZED PROCEDURE
• line 85: (S0187) A NEW MONTE CARLO APPROACH TO STRUCTURE SOLUTION FROM POWDER DATA
• line 90: (E0403) SOLVING CRYSTAL STRUCTURES FROM POWDER DATA: EXTRA AND SIRPOW PACKAGES
• line 95: (E0544) AB-INITIO STRUCTURE DETERMINATION BY THE MAXIMUM ENTROPY AND LIKELIHOOD METHOD USING POWDER DIFFRACTION DATA AND THE CONCEPT OF HYPEROCTANT PHASE ANGLES
• line 100: (S0676) STRUCTURE DETERMINATION FROM POWDER DATA USING SYMMETRY ADAPTED FUNCTIONS: SIMREF22
• line 105: (D0082) CRYSTAL STRUCTURE DETERMINATION OF TWO POLYMORPHIC PHASES OF LANTHANUM NITRATE TETRAHYDRATE FROM X-RAY POWDER DIFFRACTION
• line 110: (S0712) AB INITIO CRYSTAL STRUCTURE DETERMINATION FROM LOW TEMPERATURE X-RAY POWDER DATA: THE CHIRAL COMPOUND L-CARVONE
• line 115: (S0758) CRYSTAL STRUCTURE OF A NEW COORDINATION POLYMER, {[Ni2Cl2(L)(CH3OH)2(H2O)2]Cl2}n, FROM X-RAY POWDER DATA

File //sincris/iucr/abstracts/title/03.02.html

• line 74: (E0613) RESOLUTION ENHANCEMENT IN POWDER DIFFRACTION USING STABLE DECONVOLUTION.

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• line 18: (E0119) CCP14 IN POWDER AND SINGLE-CRYSTAL DIFFRACTION

File //sincris/iucr/abstracts/title/08.00.html

• line 232: (D0062) CRYSTAL STRUCTURE OF CeNb3O9 AND LaNb3O9 BY X-RAY POWDER DIFFRACTION

File //sincris/iucr/abstracts/title/08.01.html

• line 81: (D0101) DETERMINATION OF HYDROGEN-ATOMS ON LAMELLAR TITANIUM PHOSPHATES FROM NEUTRON POWDER DIFFRACTION DATA

File //sincris/iucr/abstracts/title/08.02.html

• line 95: (E0295) HIGH TEMPERATURE POWDER DIFFRACTION OF POLLUCITE UP TO 1073K

File //sincris/iucr/abstracts/title/09.01.html

• line 32: (E0547) A NEW POWDER NEUTRON DIFFRACTOMETER AT THE JEEP II REACTOR AT KJELLER IN NORWAY

File //sincris/iucr/abstracts/title/10.01.html

• line 92: (E1225) BaTiO3 SYNTHESIS PARAMETER DETERMINATION VIA X-RAY POWDER DIFFRACTION ANALYSIS

File //sincris/iucr/abstracts/title/10.03.html

• line 113: (D0004) PARTICLE SIZE AND STRAIN MEASUREMENT IN RHENIUM POWDER BY MEANS OF THE WARREN-AVERBACH METHOD

File //sincris/iucr/abstracts/title/10.08.html

• line 31: (E0556) LIMITS ON PRECISION AND ACCURACY IN POWDER DIFFRACTION DATA ANALYSIS
• line 37: (S0264) DATA COLLECTION, ANALYSIS AND ACCURACY IN SYNCHROTRON X-RAY POWDER DIFFRACTION
• line 43: (E0130) ANOMALOUS SCATTERING POWDER DIFFRACTION: A VERSATILE TOOL
• line 55: (E1179) MAGNETISM AND NEUTRON POWDER DIFFRACTION
• line 60: (S0147) EFFECT OF CA SUBSTITUTION ON THE ROOM TEMPERATURE STRUCTURE OF SRTIO3: A POWDER NEUTRON DIFFRACTION STUDY
• line 71: (S0188) DETERMINATION OF POLYMER ELECTROLYTE STRUCTURES BY X-RAY POWDER DIFFRACTION
• line 86: (S0485) NEUTRON POWDER DIFFRACTION STUDY OF THE NUCLEAR AND MAGNETIC STRUCTURES OF La1-XMXMnO3 (M=Ca AND Sr)
• line 91: (E0743) A RIETVELD-REFINEMENT PROGRAM FOR THE TOF NEUTRON POWDER DIFFRACTOMETER VEGA
• line 101: (E1307) IMPROVED MODAL ANALYSIS FROM X-RAY POWDER DIFFRACTION DATA
• line 106: (E0003) CRYSTAL DATA AND X-RAY POWDER DIFFRACTION DATA OF LOBENZARIT ACID AND LOBENZARIT DISODIUM
• line 126: (S0099) ORIENTATION OF NAPHTHALENE IN H-ZSM-5 AS DETERMINED FROM POWDER AND SINGLE CRYSTAL X-RAY DATA

File //sincris/iucr/abstracts/title/10.09.html

• line 37: (E1083) IN-SITU X-RAY AND NEUTRON POWDER DIFFRACTION STUDIES OF PHASE EQUILIBRIA IN METALS AND CERAMICS
• line 43: (D0088) HYDROTHERMAL CONVERSION OF ZEOLITES; AN IN-SITU TIME RESOLVED SYNCHROTRON X-RAY POWDER DIFFRACTION STUDY
• line 72: (E0553) REAL-TIME X-RAY POWDER DIFFRACTION EXPERIMENTS ON COCOA BUTTER

File //sincris/iucr/abstracts/title/10.13.html

• line 81: (E1064) NEUTRON POWDER DIFFRACTION OF OPERATING ELECTROCHEMICAL CELLS CONTAINING LaNi5-YAlYDX ELECTRODES

File //sincris/iucr/abstracts/title/11.04.html

• line 74: (E1353) REACTION KINETICS ON FORMATION OF In- AND Zr, Ca- SUBSTITUTED YIGs BY in situ POWDER XRD

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• line 40: (E0711) NEUTRON POWDER DIFFRACTION STUDY OF THE HIGH PRESSURE JAHN-TELLER SWITCH IN (ND4)2[Cu(D2O)6](SO4)2
• line 151: (E0756) X-RAY DIFFRACTION STUDIES OF Pd-Cu POWDERS

File //sincris/iucr/abstracts/title/15.01.html

• line 107: (E1454) COMPOSITE GERMANIUM CRYSTALS WITH ANISOTROPIC MOSAIC AS A FOCUSSING MONOCHROMATOR FOR NEUTRON POWDER DIFFRACTION

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• line 33: (E0036) THE FIRST MEASUREMENTS OF A PURE MAGNETIC POWDER REFLECTION WITH X-RAYS

File //sincris/iucr/abstracts/title/18.03.html

• line 105: (E0280) HOST STRUCTURE AND GUEST OCCUPANCY OF N2- AND O2-CLATHRATES AS A FUNCTION OF PRESSURE BY NEUTRON POWDER DIFFRACTION
• line 111: (S0450) AMBIENT PRESSURE STRUCTURE OF ZrO2-TYPE Ca(OD)2 BY POWDER NEUTRON DIFFRACTION

File //sincris/iucr/abstracts/title/18.06.html

• line 30: (E0987) 2-D ANALYSIS OF NON-IDEAL POWDERS USING AN IMAGE-PLATE DETECTOR
• line 41: (E0458) INTENSITY ANALYSIS FOR HIGH PRESSURE POWDER DIFFRACTION USING DIAMOND ANVIL CELLS
• line 47: (E0533) THE USE OF IMAGING PLATES IN LABORATORY HIGH PRESSURE X-RAY POWDER DIFFRACTION EXPERIMENTS
• line 64: (E1039) IPA, A PROGRAM FOR PROCESSING POWDER DIFFRACTION IMAGES.

File //sincris/iucr/abstracts/title/19.html

• line 42: (S0650) STRUCTURAL DETERMINATION OF THE LOW TEMPERATURE PHASES OF GLOBULAR ORGANIC MOLECULES BY POWDER X-RAY DIFFRACTION

File //sincris/iucr/abstracts/title/25.00.html

• line 12: (E1107) THE USE OF ZONE CONTROL CHARTS IN QUANTITATIVE X-RAY POWDER PHASE ANALYSIS TO INSURE QUALITY CONTROL

File //sincris/iucr/abstracts/title/WK.CF.html

• line 83: (E0729) INTRODUCTION TO THE CIF POWDER DEFINITIONS

File //sincris/iucr/abstracts/title/11.05a.html

• line 217: (E0756) X-RAY DIFFRACTION STUDIES OF Pd-Cu POWDERS
• line 259: (E0711) NEUTRON POWDER DIFFRACTION STUDY OF THE HIGH PRESSURE JAHN-TELLER SWITCH IN (ND4)2[Cu(D2O)6](SO4)2

File //sincris/iucr/abstracts/abstracts/E0003.html

• line 4: CRYSTAL DATA AND X-RAY POWDER DIFFRACTION DATA OF LOBENZARIT ACID AND
• line 12: been investigated by means of X-ray powder diffraction. The 4-chloro-2,2'

File //sincris/iucr/abstracts/abstracts/E0007.html

• line 12: powder mixtures by X-ray diffraction and Rietveld refinements. The Al-Cu-Ru
• line 17: Ar-atmosphere and annealed for different times and temperatures. Two powdered

File //sincris/iucr/abstracts/abstracts/E0028.html

• line 9: Conventional diffraction/refinement techniques (e.g. Rietveld-powder) can yield

File //sincris/iucr/abstracts/abstracts/E0056.html

• line 13: investigated using X-ray single crystal and neutron high resolution powder
• line 15: Nonlinear optical properties (SHG measurements on powder samples) indicate

File //sincris/iucr/abstracts/abstracts/E0111.html

• line 4: CRYSTAL STRUCTURES FROM POWDER DATA BY DIRECT METHODS. W.
• line 10: In our structural investigations from powder data we used the Direct Method
• line 11: Powder Diffraction Package POWSIM[1] to solve BOTH the problem of
• line 13: structure determination from powder diffraction data by means of 'ab
• line 29: use X-ray data collected by a conventional powder diffractometer.

File //sincris/iucr/abstracts/abstracts/E0119.html

• line 4: CCP14 IN POWDER AND SINGLE-CRYSTAL DIFFRACTION. A. J. Holland -
• line 7: The aim of CCP14 is to develop an integrated and user-friendly suite of powder
• line 11: 1995 included a small number of good quality powder programs covering
• line 23: CCP14 exists to serve the academic powder and single-crystal communities and

File //sincris/iucr/abstracts/abstracts/E0130.html

• line 4: ANOMALOUS SCATTERING POWDER DIFFRACTION: A VERSATILE TOOL . A. P.

File //sincris/iucr/abstracts/abstracts/E0141.html

• line 29: has been evidenced by high-resolution synchrotron x-ray and neutron powder
• line 43: La, Pr; A' = Ca, Sr, Ba) was determined by neutron powder

File //sincris/iucr/abstracts/abstracts/E0188.html

• line 10: Y@C82 has been obtained via a Synchrotron X-ray powder diffraction
• line 21: more than 99.9%. An X-ray powder pattern of Y@C82 was measured by

File //sincris/iucr/abstracts/abstracts/E0193.html

• line 22: the need of the students. The powder and electron diffraction techniques are

File //sincris/iucr/abstracts/abstracts/E0280.html

• line 6: O2-CLATHRATES AS A FUNCTION OF PRESSURE BY NEUTRON POWDER

File //sincris/iucr/abstracts/abstracts/E0294.html

• line 12: Acid Database, the Crystal Data Identification File, and the Powder Diffraction

File //sincris/iucr/abstracts/abstracts/E0295.html

• line 5: HIGH TEMPERATURE POWDER DIFFRACTION OF POLLUCITE UP TO 1073K. J.
• line 14: Powder diffraction of a sample from Bikita, Simbabwe (K. Rank, Bergakademie,

File //sincris/iucr/abstracts/abstracts/E0528.html

• line 12: temperature is obtained by the Maximum Entropy Method (MEM) from neutron powder
• line 13: diffraction data. It is not common to carry out neutron powder diffraction
• line 24: The neutron powder diffraction experiment is carried out by HRPD (High
• line 25: Resolution Powder Diffractometer) at JAERI-3M. The powder pattern is recorded

File //sincris/iucr/abstracts/abstracts/E0584.html

• line 8: Fe--Ni alloys after laser heating were investigated by X-ray powder

File //sincris/iucr/abstracts/abstracts/E0611.html

• line 13: like the Powder Diffraction Files from the ICDD and there is access to
• line 27: crystal structure data has also been published. In the powder diffraction
• line 28: files, however, only 30 powder patterns found in this system are included.
• line 29: Meaning that users, working in this system, have to calculate the other powder

File //sincris/iucr/abstracts/abstracts/E0635.html

• line 16: structure was determined from X-ray powder diffraction data.

File //sincris/iucr/abstracts/abstracts/E0667.html

• line 10: powder diffraction pattern could be indexed on a primitive monoclinic unit cell
• line 18: of the unsolvated form was refined using powder data.

File //sincris/iucr/abstracts/abstracts/E0690.html

• line 22: conventional X-ray powder diffractometer. Both sets of samples show an increase

File //sincris/iucr/abstracts/abstracts/D0004.html

• line 4: PARTICLE SIZE AND STRAIN MEASUREMENT IN RHENIUM POWDER BY MEANS OF THE
• line 12: The material used in this research was rhenium powder produced by reduction
• line 17: Powder data were collected at room temperature with a SIEMENS D5000
• line 20: of the (101) and (202) powder diffraction profiles. The standard powder sample

File //sincris/iucr/abstracts/abstracts/D0077.html

• line 14: I4/mmm. We have examined by neutron powder diffraction the ternaries

File //sincris/iucr/abstracts/abstracts/D0081.html

• line 5: MODERN POWDER DIFFRACTION IN MATERIALS SCIENCE. Daniel Louër,
• line 9: The powder diffraction method offers a wide spectrum of applications to
• line 16: zeolites, and the investigation of powder materials, in terms of structural
• line 18: widely based on the use of powder diffraction.
• line 19: Modern powder diffraction applications include (i) analytical
• line 28: determination of crystal structures ab initio from powder data. More
• line 35: Although the frontiers of powder diffraction have been extended by

File //sincris/iucr/abstracts/abstracts/D0082.html

• line 6: NITRATE TETRAHYDRATE FROM X-RAY POWDER DIFFRACTION. M. Louër, A.-E.
• line 15: than 4 Torr, respectively. Powder diffraction data for the two phases were
• line 16: collected with a high resolution powder diffractometer using monochromatic
• line 17: radiation ([[lambda]] = 1.5406 Å). The indexing of the powder patterns

File //sincris/iucr/abstracts/abstracts/D0088.html

• line 6: X-RAY POWDER DIFFRACTION STUDY. P. Norby, Chemistry Department, Brookhaven
• line 10: conventional synthesis may be obtained. By using in-situ synchrotron powder
• line 16: using in-situ powder diffraction at temperatures from 200-260deg.C. Also,
• line 22: especially for time- temperature- and wavelength-dependent powder diffraction

File //sincris/iucr/abstracts/abstracts/D0108.html

• line 14: powder diffraction. These alloys in the equilibrium state at RT are two-phase

File //sincris/iucr/abstracts/abstracts/D0118.html

• line 12: been made by means of X-ray powder diffraction using Rietveld method.
• line 19: refined the structures of these minerals and prepared powder cards for them.The
• line 22: theoretical powder patterns were calculated and their comparison with measured
• line 24: The X-ray data were collected on DRON-UM-1 powder diffractometer with

File //sincris/iucr/abstracts/abstracts/E0333.html

• line 12: type salts (A=K, Rb, Cs) were determined from x-ray powder diffraction.

File //sincris/iucr/abstracts/abstracts/E0544.html

• line 5: METHOD USING POWDER DIFFRACTION DATA AND THE CONCEPT OF HYPEROCTANT PHASE
• line 9: The problem of reflection overlap in powder diffraction is the factor which

File //sincris/iucr/abstracts/abstracts/E0547.html

• line 4: A NEW POWDER NEUTRON DIFFRACTOMETER AT THE JEEP II REACTOR AT KJELLER IN
• line 9: A new high-resolution powder neutron diffractometer has been installed at the
• line 25: other, covers 20 degrees in 2theta. A complete powder pattern of 120 degrees
• line 31: of the new powder neutron diffractometer will be shown.

File //sincris/iucr/abstracts/abstracts/E0556.html

• line 4: LIMITS ON PRECISION AND ACCURACY IN POWDER DIFFRACTION DATA ANALYSIS.
• line 8: Powder diffraction is a powerful technique for the elucidation of increasingly
• line 10: and neutron powder diffractometers permits not only the refinement but also the
• line 15: structures from powder data. This talk will address the question of the limits
• line 22: contributions to the diffraction profile. Neutron powder diffraction, with its

File //sincris/iucr/abstracts/abstracts/E0564.html

• line 25: data. Non-ideal powders, with texture, or maybe deviatoric stress make

File //sincris/iucr/abstracts/abstracts/E0580.html

• line 25: additional weak reflections. Indexing of X-ray powder diffractions shows a new
• line 27: enlarged. The superstructure was refined with data received from powder

File //sincris/iucr/abstracts/abstracts/E0652.html

• line 11: Deviatoric stresses are generated by compressing a polycrystalline powder as a

File //sincris/iucr/abstracts/abstracts/E0711.html

• line 4: NEUTRON POWDER DIFFRACTION STUDY OF THE HIGH PRESSURE JAHN-TELLER SWITCH
• line 24: diagram was examined in greater detail by powder neutron diffraction and the

File //sincris/iucr/abstracts/abstracts/E0729.html

• line 4: INTRODUCTION TO THE CIF POWDER DEFINITIONS. Brian H. Toby, Reactor
• line 8: Definitions have been added to the CIF dictionary to accomodate powder
• line 12: initially designed to document a crystallographic determination, the powder
• line 17: the powder CIF dictionary provides for pointers between CIF blocks and files.

File //sincris/iucr/abstracts/abstracts/E0743.html

• line 4: A RIETVELD-REFINEMENT PROGRAM FOR THE TOF NEUTRON POWDER DIFFRACTOMETER
• line 10: A time-of-flight (TOF) neutron powder diffractometer, VEGA (Kamiyama et

File //sincris/iucr/abstracts/abstracts/E0756.html

• line 4: X-RAY DIFFRACTION STUDIES OF Pd - Cu POWDERS. J.Pielaszek, Z.Kaszkur,
• line 9: treatments in mixtures of Pd - Cu powders were studied by in situ XRD in

File //sincris/iucr/abstracts/abstracts/E0900.html

• line 25: standard powder sample, may be required.

File //sincris/iucr/abstracts/abstracts/E0919.html

• line 14: of producing high- quality powder diffraction data to pressures up to 15 GPa

File //sincris/iucr/abstracts/abstracts/E0969.html

• line 4: ZEOLITE STRUCTURE DETERMINATION FROM POWDER DATA: COMPUTER-BASED
• line 15: Fourier recycling (using integrated intensities extracted from a powder pattern

File //sincris/iucr/abstracts/abstracts/E0975.html

• line 19: characterized by powder diffractometry, thermal analysis and solid-state NMR.
• line 20: The above polymerization reaction was followed by in situ X-ray powder

File //sincris/iucr/abstracts/abstracts/E1032.html

• line 13: spectra (several sec for powder samples), it is possible to follow evolution of

File //sincris/iucr/abstracts/abstracts/E1034.html

• line 16: designed for high pressure neutron powder diffraction, its compact size gives
• line 19: potential of these techniques, covering: (1) Neutron powder diffraction to 25
• line 22: GPa on reactor sources, (3) in-situ x-ray powder diffraction at high

File //sincris/iucr/abstracts/abstracts/E1036.html

• line 25: time-resolved small-angle neutron scattering and neutron powder diffraction

File //sincris/iucr/abstracts/abstracts/E1039.html

• line 5: IPA, A PROGRAM FOR PROCESSING POWDER DIFFRACTION IMAGES Ken Lagarec
• line 9: We describe a program and the underlying algorithms for processing powder
• line 23: example, we show a powder diffraction image of a mixed sample of

File //sincris/iucr/abstracts/abstracts/E1049.html

• line 10: Constant wavelength neutron powder diffraction data have been refined using
• line 35: samples after neutron diffraction. Neutron powder diffraction data were
• line 36: collected using the HB4 high resolution powder diffractometer (1.03 Å,

File //sincris/iucr/abstracts/abstracts/E1064.html

• line 5: NEUTRON POWDER DIFFRACTION OF OPERATING ELECTROCHEMICAL CELLS CONTAINING
• line 14: the electrode ten-fold. Rietveld profile refinements of neutron powder
• line 18: Our neutron powder diffraction studies on the aluminum substituted alloy

File //sincris/iucr/abstracts/abstracts/E1174.html

• line 23: scattering, powder diffraction and disordered crystals. The course is

File //sincris/iucr/abstracts/abstracts/E1203.html

• line 13: polycrystals were examined: a-SiC (STARCK), b-SiC powder obtained by
• line 16: powders. Comparative structural studies of these materials sintered without
• line 25: starting powders (compacted without liquid phase) generate microtwins and

File //sincris/iucr/abstracts/abstracts/E1212.html

• line 7: Techniques for predicting and solving crystal structures based on powder
• line 14: materials for which powder diffraction may be the primary

File //sincris/iucr/abstracts/abstracts/E1232.html

• line 5: TIME-RESOLVED POWDER DIFFRACTION. J. C. Hanson, J. Aruajo, P. Norby,
• line 10: Time-resolved synchrotron powder diffraction data will be presented that have

File //sincris/iucr/abstracts/abstracts/E1287.html

• line 12: laboratory device, using channeltron. The powder was checked by X-ray

File //sincris/iucr/abstracts/abstracts/E1307.html

• line 4: IMPROVED MODAL ANALYSIS FROM X-RAY POWDER DIFFRACTION DATA. W.G.
• line 9: occurring rock types by Rietveld analysis of X-ray and neutron powder

File //sincris/iucr/abstracts/abstracts/E1308.html

• line 24: measurements can be compared to various powder x-ray diffraction works.

File //sincris/iucr/abstracts/abstracts/E1353.html

• line 5: SITU" POWDER XRD. A.Preisinger, K.Mereiter and L.Petrás. Institute
• line 11: temperature X-ray powder diffraction method up to 1400deg.C. The measurements

File //sincris/iucr/abstracts/abstracts/E1354.html

• line 11: Italy were analysed by X-ray powder diffraction and by a scanning electron

File //sincris/iucr/abstracts/abstracts/S0019.html

• line 17: ball-milling process) of zinc ferrite from zinc oxide and iron oxide powders at
• line 20: is characterized by means of X-ray powder diffraction, scanning electron
• line 32: [2] Sepelak, V., Tkacova, K., Steinike, U., Boldyrev, V.V.: European Powder

File //sincris/iucr/abstracts/abstracts/S0048.html

• line 11: four-dimensional superspace group pR31ms using the powder

File //sincris/iucr/abstracts/abstracts/S0062.html

• line 20: thiophene, stilbene, polyphenyl, polyacetylene). SHG powder tests revealed that

File //sincris/iucr/abstracts/abstracts/S0099.html

• line 5: ORIENTATION OF NAPHTHALENE IN H-ZSM-5 AS DETERMINED FROM POWDER AND SINGLE
• line 15: determined by Xray Powder Diffraction (hereafter referred to as XPD1 [Mentzen
• line 30: orientation of nph as determined from powder and single crystal X-ray

File //sincris/iucr/abstracts/abstracts/S0122.html

• line 33: stated that they verified their proposed structure by indexing neutron powder
• line 36: powder diffraction investigation of the various phases of tBC. The crystal

File //sincris/iucr/abstracts/abstracts/S0127.html

• line 17: lithiated. Neutron diffraction data from powder samples were collected on the
• line 18: Special Environment Powder Diffractometer (SEPD) of the Intense Pulsed Neutron

File //sincris/iucr/abstracts/abstracts/S0130.html

• line 9: We discuss the application of powder and single-crystal neutron diffraction
• line 19: studied using a battery of neutron techniques (powder, Rietveld refinement,

File //sincris/iucr/abstracts/abstracts/S0133.html

• line 18: MNA powder was well-purified not only by sublimation at 90deg.C but also by
• line 19: zone-refining, where its melting point is 132deg.C. The purified powder was

File //sincris/iucr/abstracts/abstracts/S0145.html

• line 21: This paper reports the X-ray powder and single crystal diffraction results
• line 35: structure has been confirmed by the infrared measurements. The powder

File //sincris/iucr/abstracts/abstracts/S0147.html

• line 6: SrTiO3 : A POWDER NEUTRON DIFFRACTION STUDY. Rajeev Ranjan and
• line 11: powder neutron diffraction patterns of
• line 14: analysis of the neutron powder diffraction profiles shows that the structure

File //sincris/iucr/abstracts/abstracts/S0150.html

• line 17: x-ray powder diffraction, similar high-pressure phases have been observed to

File //sincris/iucr/abstracts/abstracts/S0152.html

• line 5: NEW HIGH- AND LOW-TEMPERATURE FACILITIES FOR POWDER DIFFRACTION AT
• line 12: has been assembled to cool powder samples from room temperature down to 20 K.
• line 14: enhance the powder diffraction facilities at the SRS, Daresbury Laboratory. In
• line 16: powder diffractometry. Powder diffraction results from standard tungsten and

File //sincris/iucr/abstracts/abstracts/S0159.html

• line 13: treatable high pressure cell of the piston-cylinder type for neutron powder

File //sincris/iucr/abstracts/abstracts/S0169.html

• line 20: simulated powder diffraction one. A highly (001) prefer oriented

File //sincris/iucr/abstracts/abstracts/S0172.html

• line 24: We have studied this reaction using time resolved powder diffraction, EXAFS

File //sincris/iucr/abstracts/abstracts/S0179.html

• line 13: 3.5H2O, was solved using synchrotron X-ray powder diffraction data,
• line 14: neutron powder diffraction data of BaC2O4 3
• line 20: with the neutron powder diffraction data. The barium atoms are bonded to the

File //sincris/iucr/abstracts/abstracts/S0188.html

• line 5: DETERMINATION OF POLYMER ELECTROLYTE STRUCTURES BY X-RAY POWDER
• line 15: initio powder methods to determine some of these structures. Several
• line 22: a problem which we were unable to solve by "conventional" powder methods. The

File //sincris/iucr/abstracts/abstracts/S0220.html

• line 10: was determined by the maximum entropy method (MEM) with the aid of powder X-ray

File //sincris/iucr/abstracts/abstracts/S0221.html

• line 12: the combination of powder X-ray diffraction data and maximum entropy method.
• line 25: The Sr2RuO4 powder used in the present work was prepared
• line 26: by heating the mixed powder of ruthenium and strontium carbonate in air at
• line 27: 1200deg.C for 24 hours. Powder pattern was measured at room temperature by
• line 29: powder pattern fitting was applied in order to obtain integrated intensities

File //sincris/iucr/abstracts/abstracts/S0222.html

• line 9: High temperature powder diagrams are influenced by systematic errors of
• line 26: the Rietveld method for Li2SO4 and the Whole Powder

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• line 5: POWDER STRUCTURES FROM LIMITED DATA SETS. Damodara M. Poojary,
• line 10: depend mainly on the use of their powder diffraction data. Substantial progress
• line 12: decade for the application of powder diffraction techniques to solve unknown
• line 16: conditions for extracting individual intensities in the powder pattern. In most
• line 22: form and in most cases even their powder samples are poorly crystalline. The
• line 37: etc. to arrive at the solution when only a limited number of powder diffraction

File //sincris/iucr/abstracts/abstracts/S0257.html

• line 10: EMD is used as a cathode material in batteries. X-ray powder diffraction was

File //sincris/iucr/abstracts/abstracts/S0264.html

• line 5: DATA COLLECTION, ANALYSIS AND ACCURACY IN SYNCHROTRON X-RAY POWDER
• line 9: As more and more dedicated high-resolution powder diffraction beamlines become
• line 12: and analysis, to minimize systematic errors such as inadequate powder

File //sincris/iucr/abstracts/abstracts/S0314.html

• line 15: C) are determined using powder neutron diffraction. Refinements using Rietveld

File //sincris/iucr/abstracts/abstracts/S0423.html

• line 23: The neutron powder refinement was made for monophasic

File //sincris/iucr/abstracts/abstracts/S0425.html

• line 20: compared with recent high-pressure time-of-flight neutron powder diffraction

File //sincris/iucr/abstracts/abstracts/S0436.html

• line 26: (Ca,Sr)O phase was formed. When Ag powder was well mixed with the the sample,

File //sincris/iucr/abstracts/abstracts/S0450.html

• line 5: POWDER NEUTRON DIFFRACTION. Kurt Leinenweber1, Dan
• line 13: ZrO2, is known from high pressure in situ powder x-ray
• line 20: pressure for powder neutron diffraction. The back-transformation to the
• line 23: neutron powder diffraction pattern taken at 11 K Platinum foil which was

File //sincris/iucr/abstracts/abstracts/S0451.html

• line 28: their ideal (cubic) arrangement. Based on the similarity of xray powder

File //sincris/iucr/abstracts/abstracts/S0473.html

• line 38: information can be used for structural determination with powder diffraction

File //sincris/iucr/abstracts/abstracts/S0481.html

• line 22: upon further intercalation, powder diffraction identifies an increasing

File //sincris/iucr/abstracts/abstracts/S0485.html

• line 4: NEUTRON POWDER DIFFRACTION STUDY OF THE NUCLEAR AND MAGNETIC STRUCTURES OF
• line 15: has been made using neutron powder diffraction. For x=0, the Rietveld

File //sincris/iucr/abstracts/abstracts/S0495.html

• line 19: Fe2O3 powder of large particle size (1 um), and small

File //sincris/iucr/abstracts/abstracts/S0500.html

• line 11: powder specimens. The results are in a close agreement with the brightness
• line 14: can be used in many different studies with EDD. In the case of powder
• line 17: integrated intensities. A new method for resolving the powder pattern was

File //sincris/iucr/abstracts/abstracts/S0507.html

• line 14: Rietveld refinement of powder X-ray data. The calculated Ti3+

File //sincris/iucr/abstracts/abstracts/S0512.html

• line 22: [Vo ] = [CaY']/2 ). Rietveld powder-profile analysis of

File //sincris/iucr/abstracts/abstracts/S0515.html

• line 14: powder diffraction patterns, as a consequence of disorder and very large

File //sincris/iucr/abstracts/abstracts/S0533.html

• line 38: the experimental powder diffraction data.

File //sincris/iucr/abstracts/abstracts/S0550.html

• line 20: sample was oxidized at 345 deg.C for 2 hours and studied by powder neutron

File //sincris/iucr/abstracts/abstracts/S0553.html

• line 17: Zr. The EXAFS spectra of the powdered sample near the Y and Zr K absorption

File //sincris/iucr/abstracts/abstracts/S0562.html

• line 21: from powder diffraction of lithiated V6O13 must be

File //sincris/iucr/abstracts/abstracts/S0563.html

• line 22: In this study, a neuton structure determination of a powder sample containing

File //sincris/iucr/abstracts/abstracts/D0030.html

• line 14: a SQUID magnetometer and by neutron powder diffraction. The chromium atoms do
• line 22: the 2 K neutron powder patterns of Tb2Cr2C3

File //sincris/iucr/abstracts/abstracts/D0143.html

• line 26: DSC-microcalorimetry and synchrotron powder diffraction data. We report here on

File //sincris/iucr/abstracts/abstracts/E0019.html

• line 4: CCP14 IN POWDER AND SINGLE-CRYSTAL DIFFRACTION. A. J. Holland -
• line 7: The aim of CCP14 is to develop an integrated and user-friendly suite of powder
• line 11: 1995 included a small number of good quality powder programs covering
• line 23: CCP14 exists to serve the academic powder and single-crystal communities and

File //sincris/iucr/abstracts/abstracts/E0230.html

• line 6: POWDER DIFFRACTION Richard M Ibberson, ISIS Facility, Rutherford Appleton
• line 9: High resolution neutron powder diffraction is a particularly suitable
• line 13: small volume samples for X-ray studies that exhibit a good powder average,
• line 14: low-temperature sample preparation and data collection for neutron powder

File //sincris/iucr/abstracts/abstracts/E0289.html

• line 13: experiments have been performed both for powders and single crystals in the

File //sincris/iucr/abstracts/abstracts/E0613.html

• line 4: RESOLUTION ENHANCEMENT IN POWDER DIFFRACTION USING STABLE
• line 9: powder diffraction to approximately 0.025 degrees 2theta, without loss of
• line 10: intensity. Enhancing the resolution in powder diffraction has always been a

File //sincris/iucr/abstracts/abstracts/E0783.html

• line 18: When this occurs superlattice lines appear in the X-ray powder pattern. The
• line 30: using X-ray diffraction data collected with a Siemens D5000 powder

File //sincris/iucr/abstracts/abstracts/E0874.html

• line 4: INFORMATION ON SYMMETRY IN POWDER DIFFRACTION DATA. M.
• line 14: presented for powder specimens, their space groups had been assigned only with
• line 16: measured by powder diffraction methods and they are not separable to individual
• line 19: powder diffraction data in such a way that summed intensities are distributed

File //sincris/iucr/abstracts/abstracts/E0890.html

• line 10: gallides REGa2 (RE = Tm, Er, Ho) by means of x-ray powder

File //sincris/iucr/abstracts/abstracts/E0896.html

• line 11: refinement of x-ray powder data.

File //sincris/iucr/abstracts/abstracts/E1083.html

• line 5: IN-SITU X-RAY AND NEUTRON POWDER DIFFRACTION STUDIES OF PHASE EQUILIBRIA
• line 9: High temperature x-ray and neutron powder diffraction measurements of reaction
• line 17: transformations. Rietveld refinement, profile fitting, and powder pattern
• line 20: High temperature, high-resolution neutron powder diffraction experiments are

File //sincris/iucr/abstracts/abstracts/E1224.html

• line 18: The structure has been solved using powder X-ray and neutron diffraction data

File //sincris/iucr/abstracts/abstracts/E1225.html

• line 4: BaTiO3 SYNTHESIS PARAMETER DETERMINATION VIA X-RAY POWDER
• line 10: X-ray powder diffraction was used to study the effects of certain parameters
• line 17: for composition by x-ray powder diffraction. The effect of the parameters were

File //sincris/iucr/abstracts/abstracts/E1314.html

• line 12: powder diffraction data. It is well known that KDP is the prototype of
• line 25: The data set used in the analyses are collected by powder X-ray diffraction

File //sincris/iucr/abstracts/abstracts/E1320.html

• line 29: powder diffraction and an IP at beamline X7B. From these results, information

File //sincris/iucr/abstracts/abstracts/E1321.html

• line 26: The interface on the cement paste side was analyzed by powder diffractometer

File //sincris/iucr/abstracts/abstracts/S0363.html

• line 9: traditional X-ray powder diffraction quantitative analysis methods. SiC

File //sincris/iucr/abstracts/abstracts/S0585.html

• line 15: Rietveld analysis of x-ray powder patterns of nine compositions spanning this
• line 21: poorer fits to the powder patterns were obtained for the step-cooled samples.

File //sincris/iucr/abstracts/abstracts/S0587.html

• line 13: (Uppsala, Sweden). Data from powder samples have been collected in the range

File //sincris/iucr/abstracts/abstracts/S0596.html

• line 5: ANOMALOUS DISPERSION APPLIED TO A TIN-MORDENITE POWDER SAMPLE AT THE
• line 17: Science Beamline recorded powder diffractograms of the zeolitic ionic

File //sincris/iucr/abstracts/abstracts/S0600.html

• line 26: Variable-temperature powder magnetic susceptibility data confirm the presence

File //sincris/iucr/abstracts/abstracts/S0629.html

• line 17: oxygen content. Neutron powder diffraction data were collected at room
• line 18: temperature using the medium resolution-high intensity powder diffractometer

File //sincris/iucr/abstracts/abstracts/S0644.html

• line 18: diffraction study, disagrees with a neutron powder diffraction analysis by
• line 23: crystals, the neutron analysis is restricted to that of powders only. If the

File //sincris/iucr/abstracts/abstracts/S0650.html

• line 5: MOLECULES BY POWDER X-RAY DIFFRACTION A.J.MORA1,2 and
• line 19: during the phase transitions. High resolution powder diffraction provides an

File //sincris/iucr/abstracts/abstracts/S0676.html

• line 4: STRUCTURE DETERMINATION FROM POWDER DATA USING SYMMETRY ADAPTED FUNCTIONS:
• line 25: analysis of line splitting in highly resolved powder patterns is the first step

File //sincris/iucr/abstracts/abstracts/S0678.html

• line 11: and sodium hydrochloride solution with alumina powder. The GaAs samples used

File //sincris/iucr/abstracts/abstracts/S0679.html

• line 5: TOOL FOR SOLVING ZEOLITE STRUCTURES FROM X-RAY POWDER DATA. J. Rius &
• line 11: (2.2 Angstroms) powder diffraction data is shown. The phases are

File //sincris/iucr/abstracts/abstracts/S0683.html

• line 29: sophisticated technique was contrived. Powder of LaMeO3 perovskite

File //sincris/iucr/abstracts/abstracts/S0689.html

• line 4: DETERMINATION OF MOLECULAR CRYSTAL STRUCTURES FROM X-RAY POWDER
• line 13: extracted from powder diffraction data. We have developed and applied a method
• line 15: powder diffraction data. In this method, a series of structural models is
• line 18: between the experimental powder diffraction pattern and the powder diffraction
• line 20: considerably from the normal approach for structure determination from powder
• line 24: initio crystal structure determination from X-ray powder diffraction data

File //sincris/iucr/abstracts/abstracts/S0697.html

• line 28: electron density around the center of the cavity. 2H-NMR powder

File //sincris/iucr/abstracts/abstracts/S0709.html

• line 10: samples depend on particle size distribution of powders and are basically,
• line 19: losses are increasing. These characteristics under normalization of powders
• line 23: 3) damped powders treatment is a constant electric field under 500 V/mm voltage
• line 25: Powder is able to hold water films for more a long time. Dielectric losses are

File //sincris/iucr/abstracts/abstracts/S0712.html

• line 5: X-RAY POWDER DATA:THE CHIRAL COMPOUND L-CARVONE. C.Miravitlles*, J.Rius*,

File //sincris/iucr/abstracts/abstracts/S0720.html

• line 15: investigated by means of a high resolution powder X-ray diffraction technique
• line 18: results of high-temperature powder X-ray diffraction experiments. The

File //sincris/iucr/abstracts/abstracts/S0756.html

• line 30: parallel structural refinements with E.D. and X-ray powder diffraction data may

File //sincris/iucr/abstracts/abstracts/S0758.html

• line 6: n , FROM X-RAY POWDER DATA. A. Neels, B. Mathez Neels and H.
• line 23: from X-ray powder diffraction data. The compound belong to the triclinic

File //sincris/iucr/abstracts/abstracts/S0782.html

• line 15: B-factors we have included in the Rietveld refinement of a powder sample

File //sincris/iucr/abstracts/abstracts/D0061.html

• line 21: structure was inferred from powder X-Ray diffraction data.

File //sincris/iucr/abstracts/abstracts/E0034.html

• line 14: diamond) in combination with various metallic gaskets serve to clamp a powder

File //sincris/iucr/abstracts/abstracts/E0036.html

• line 4: THE FIRST MEASUREMENTS OF A PURE MAGNETIC POWDER REFLECTION WITH
• line 8: We report the first successful measurements of magnetic x-ray powder
• line 15: scattering and strong fluorescence signals has made powder measurements

File //sincris/iucr/abstracts/abstracts/E0046.html

• line 29: powder diffraction data.

File //sincris/iucr/abstracts/abstracts/E0067.html

• line 4: SUPRAMOLECULAR STRUCTURES FROM HIGH RESOLUTION POWDER DIFFRACTION. R.
• line 9: initio from powder diffraction data has been steadily improved. Although a
• line 15: of the powder pattern. Besides the higher resolution, advances in the
• line 22: high resolution powder data. They include the high and the low temperature

File //sincris/iucr/abstracts/abstracts/E0245.html

• line 28: deuterated mixed powder (x(0.6), structural changes were studied in the

File //sincris/iucr/abstracts/abstracts/E0258.html

• line 9: EMD is used as a cathode material in batteries. X-ray powder diffraction was

File //sincris/iucr/abstracts/abstracts/E0334.html

• line 19: x-ray powder diffraction and differential thermal analysis. The structural

File //sincris/iucr/abstracts/abstracts/E0335.html

• line 21: x-ray powder diffraction, The composition of inclusion was determined as

File //sincris/iucr/abstracts/abstracts/E0336.html

• line 29: following new facilities: a) simulation of powder diffraction patterns; b)

File //sincris/iucr/abstracts/abstracts/E0367.html

• line 23: pattern. Typical exposure time is 5 min. Powder diffraction experiments were

File //sincris/iucr/abstracts/abstracts/E0370.html

• line 26: DSC and multitemperature powder X-ray data are discussed together with the data

File //sincris/iucr/abstracts/abstracts/E0397.html

• line 11: conventional Rietveld method with x-ray powder diffraction data. The structure

File //sincris/iucr/abstracts/abstracts/E0403.html

• line 4: SOLVING CRYSTAL STRUCTURES FROM POWDER DATA: EXTRA AND SIRPOW
• line 15: analysis from powder data is originated by the collapse of the
• line 16: three-dimensional reciprocal space into the one dimension of the powder

File //sincris/iucr/abstracts/abstracts/E0416.html

• line 8: High-temperature (293 - 1523 K) X-ray powder diffraction has been used to
• line 16: first X-ray powder diffraction study through the ferroelastic transition, it is

File //sincris/iucr/abstracts/abstracts/E0418.html

• line 12: complexes can be prepared simply by mixing both powders of amphiphiles and

File //sincris/iucr/abstracts/abstracts/E0422.html

• line 13: on powder samples, using 16keV monochromatic beam provided by the french
• line 16: kept under vacuum. For comparison, C60 powder was measured in

File //sincris/iucr/abstracts/abstracts/E0423.html

• line 22: diffraction studies of powder samples to ~1.2GPa and ~800K.

File //sincris/iucr/abstracts/abstracts/E0450.html

• line 16: - treatment of powder data

File //sincris/iucr/abstracts/abstracts/E0451.html

• line 5: DIRECT PHASING FROM POWDER DATA: THE EXTRA OPTIMIZED PROCEDURE C.
• line 14: Present difficulties in solving crystal structures from powder data are not to
• line 16: the process which extracts structure factor amplitudes from a powder pattern.
• line 28: structures solvable by powder data. We are merging EXTRA with SIRPOW.92 [A.
• line 31: methods program for powder data, to provide a unique program, transparent to

File //sincris/iucr/abstracts/abstracts/E0455.html

• line 13: studied by X-ray powder diffraction and high resolution transmission electron

File //sincris/iucr/abstracts/abstracts/E0456.html

• line 13: temperature-dependent X-ray powder diffraction. Crystals for structure

File //sincris/iucr/abstracts/abstracts/E0460.html

• line 15: spin orderings are consistent with the same distribution of powder or single

File //sincris/iucr/abstracts/abstracts/E0638.html

• line 4: USING BRAGG OPTICS FOR HIGH RESOLUTION NEUTRON POWDER
• line 9: The performances of three set-ups for high-resolution powder diffraction,
• line 14: conditions, a FWHM of the individual powder lines of about 3x10-3
• line 19: high density of powder reflections in the investigated Q-range or in the

File //sincris/iucr/abstracts/abstracts/E0801.html

• line 18: powders and single crystals in order to clearify contradictions in the

File //sincris/iucr/abstracts/abstracts/E0806.html

• line 10: neutron powder diffraction, under uniaxial compressive stresses to 1.6 GPa. At

File //sincris/iucr/abstracts/abstracts/E0811.html

• line 19: although powder diffraction rings with preferred orientation were also observed

File //sincris/iucr/abstracts/abstracts/E0814.html

• line 23: neutron powder diffraction data, so as to reveal details of the bonding. The
• line 26: using the high resolution powder diffractometer at ANSTO. The R-factors for

File //sincris/iucr/abstracts/abstracts/E0831.html

• line 10: to pressures in excess of 4GPa have been observed, and neutron powder
• line 14: to yield a good powder of a phase whose diffraction pattern resembled ice VII,
• line 21: there was extensive structural disorder, as evidenced by broadened powder peaks

File //sincris/iucr/abstracts/abstracts/E0840.html

• line 5: CURVED IMAGE-PLATES FOR SYNCHROTRON RADIATION HIGH RESOLUTION POWDER
• line 15: crystalline powders and amorphous materials. By replacing incremental scanning
• line 23: translated during the experiment. Powder patterns collected in this way would
• line 28: for powder diffraction and a low resolution camera (smaller radius, angular

File //sincris/iucr/abstracts/abstracts/E0952.html

• line 17: using powder neutron and electron diffraction and high resolution lattice
• line 19: powder diffraction,
• line 23: in the electron diffraction patterns. Neutron powder profile refinement shows

File //sincris/iucr/abstracts/abstracts/E0987.html

• line 5: 2-D ANALYSIS OF NON-IDEAL POWDERS USING AN IMAGE-PLATE DETECTOR S. A.
• line 9: Structure determination of materials using powder diffraction requires the
• line 12: ideal powder, which are commonly found in high-pressure studies--such as
• line 16: a sample is manifested in intensity variations around the rings of a 2-d powder
• line 27: caused by non-ideal powders will be presented briefly.

File //sincris/iucr/abstracts/abstracts/E0994.html

• line 5: NEW MULTIDETECTORS AND MONOCHROMATORS ON ILL NEUTRON POWDER
• line 10: technology has finally been constructed for the new ILL D20 powder
• line 20: This means that either very small powder samples (mg) can be studied, or that

File //sincris/iucr/abstracts/abstracts/E0998.html

• line 17: coordinates are used to simulate the results of a powder diffraction

File //sincris/iucr/abstracts/abstracts/E1107.html

• line 4: THE USE OF ZONE CONTROL CHARTS IN QUANTITATIVE X-RAY POWDER PHASE ANALYSIS

File //sincris/iucr/abstracts/abstracts/E1134.html

• line 16: The powder patterns were found to contain additional very weak peaks (maximum

File //sincris/iucr/abstracts/abstracts/E1168.html

• line 11: X-ray powder diffraction experiment with an Imaging Plate as a two-dimensional

File //sincris/iucr/abstracts/abstracts/E1176.html

• line 4: VACUUM CHAMBER FOR SYNCHROTRON POWDER DIFFRACTION. B. Palosz, S.
• line 11: a chamber that allows for measurements of samples under vacuum at B2 powder

File //sincris/iucr/abstracts/abstracts/E1278.html

• line 13: PrBa2Cu4O8 has been refined from X-ray powder

File //sincris/iucr/abstracts/abstracts/E1404.html

• line 13: available. High resolution powder data of Direct Methods or Patterson
• line 19: of approximately 0.8nm - 1.2nm. X-ray powder patterns reveal the periodicity of

File //sincris/iucr/abstracts/abstracts/S0009.html

• line 26: methods of structure determination; powder crystallography etc.). New trend

File //sincris/iucr/abstracts/abstracts/S0187.html

• line 5: A NEW MONTE CARLO APPROACH TO STRUCTURE SOLUTION FROM POWDER DATA.
• line 21: [[chi]]2 criterion of powder-profile fit is used as an analogue of
• line 30: Proc. Int. Conf. Accuracy in Powder Diffraction II, held at NIST, Gaithersburg,

File //sincris/iucr/abstracts/abstracts/E0239.html

• line 13: were investigated by means of x-ray powder diffraction and magnetic

File //sincris/iucr/abstracts/abstracts/E0432.html

• line 14: powder diffraction.

File //sincris/iucr/abstracts/abstracts/E0458.html

• line 4: INTENSITY ANALYSIS FOR HIGH PRESSURE POWDER DIFFRACTION USING DIAMOND
• line 9: An angle dispersive powder x-ray diffraction experiment with an image plate
• line 13: and sufficient intensity in powder patterns. The IP makes it possible to
• line 17: methods. A powder pattern of which structure is fully known also gives

File //sincris/iucr/abstracts/abstracts/E0464.html

• line 24: polymerization and molecules tend to grow large domains. Preliminary powder
• line 27: the specimen is being attempted to prevent particle growth. Besides powder

File //sincris/iucr/abstracts/abstracts/E0533.html

• line 4: THE USE OF IMAGING PLATES IN LABORATORY HIGH PRESSURE X-RAY POWDER
• line 13: results in improved powder averaging and a much higher signal to noise ratio.

File //sincris/iucr/abstracts/abstracts/E0661.html

• line 21: liquid led to a very poor powder, more recent work has established that ices
• line 22: III and V can be prepared from powdered ice Ih, again under argon pressure. We

File //sincris/iucr/abstracts/abstracts/E0662.html

• line 19: or a block of nylon powder (in the case of SLS). Upon irradiation by the
• line 21: nylon powder is fused, or sintered. The laser is controlled by an ISO 9001

File //sincris/iucr/abstracts/abstracts/E1181.html

• line 19: structural modifications have been characterized by neutron powder diffraction

File //sincris/iucr/abstracts/abstracts/E1425.html

• line 32: of 5.43088(4) calculated by powder diffraction of NBS Standard Reference

File //sincris/iucr/abstracts/abstracts/E1433.html

• line 10: High-resolution synchrotron x-ray powder diffraction experiments of a

File //sincris/iucr/abstracts/abstracts/S0446.html

• line 4: CRYSTAL CHEMISTRY FROM POWDER DATA. Ian E. Grey
• line 7: A strength of structure analyses using powder data is the relatively short
• line 8: time required to obtain high quality data sets. This makes powder diffraction
• line 11: equivalents. The high precision obtained when collecting and processing powder
• line 21: powder X-ray data to investigate chemical and structure variations in synthetic

File //sincris/iucr/abstracts/abstracts/E0209.html

• line 11: cell at the Intense Pulsed Neutron Source (Special Environment Powder

File //sincris/iucr/abstracts/abstracts/E0506.html

• line 13: powdered both components in the solid state. In most cases, photoreaction of
• line 15: and achiral guest from solvent and that prepared by mixing powdered both

File //sincris/iucr/abstracts/abstracts/E1179.html

• line 4: MAGNETISM AND NEUTRON POWDER DIFFRACTION. F. Bourée,
• line 9: Magnetic neutron powder diffraction is, and will remain in the future, the most

File //sincris/iucr/abstracts/abstracts/E1190.html

• line 14: structure is of the wurtzite type rather than of the sphalerite type. Powder

File //sincris/iucr/abstracts/abstracts/E1330.html

• line 11: analyzed to compare with previous studies on sintered powder samples. Results

File //sincris/iucr/abstracts/abstracts/E1402.html

• line 22: Investigative methods include CBED and Rietveld refinements of powder x-ray

File //sincris/iucr/abstracts/abstracts/E0394.html

• line 30: crystallography in biology, radiography, powder diffractometer, small angle

File //sincris/iucr/abstracts/abstracts/E1283.html

• line 11: unit cell. Fahey [1] managed a partial structure solution, based on powder
• line 26: in powder diffraction. These lower the symmetry to monoclinic. The doubled cell

File //sincris/iucr/abstracts/abstracts/E1442.html

• line 4: TWO NEW TOF NEUTRON POWDER DIFFRAC-TOMETERS AT KENS. T. Kamiyama and
• line 10: A time-of-flight (TOF) neutron powder diffractometer, VEGA, has been operating
• line 14: powder diffractometer HRP in both resolution and intensity.
• line 30: Further, another TOF neutron powder diffractometer with higher resolution is

File //sincris/iucr/abstracts/abstracts/E1454.html

• line 5: MONOCHROMATOR FOR NEUTRON POWDER DIFFRACTION. T. Vogt, Physics Department,
• line 8: The High Resolution Neutron Powder Diffractometer has now been operating for
• line 17: neutron powder diffraction.

Summary for query "powder":