0000000000026390
AUTHOR
Javier Ruiz-fuertes
Phase diagram of calcium at high pressure and high temperature
Resistively heated diamond-anvil cells have been used together with synchrotron x-ray diffraction to investigate the phase diagram of calcium up to 50 GPa and 800 K. The phase boundaries between the Ca-I (fcc), Ca-II (bcc), and Ca-III (simple cubic, sc) phases have been determined at these pressure-temperature conditions, and the ambient temperature equation of state has been generated. The equation of state parameters at ambient temperature have been determined from the experimental compression curve of the observed phases by using third-order Birch-Murnaghan and Vinet equations. A thermal equation of state was also determined for Ca-I and Ca-II by combining the room-temperature Birch-Murn…
Phase transition of tetragonal copper sulfide Cu2S at low temperatures
The low-temperature behavior of tetragonal copper sulfide, ${\mathrm{Cu}}_{2}\mathrm{S}$, was investigated by powder and single-crystal x-ray diffraction, calorimetry, electrical resistance measurements, and ambient temperature optical absorption spectroscopy. The experiments were complemented by density-functional-theory-based calculations. High-quality, polycrystalline samples and single crystals of tetragonal copper sulfide were synthesized at 5 GPa and 700 K in a large volume multianvil press. Tetragonal ${\mathrm{Cu}}_{2}\mathrm{S}$ undergoes a temperature-induced phase transition to an orthorhombic structure at around 202 K with a hysteresis of $\ifmmode\pm\else\textpm\fi{}21$ K, an e…
Gold(i) sulfide: Unusual bonding and an unexpected computational challenge in a simple solid
We report the experimental high-pressure crystal structure and equation of state of gold(I) sulfide (Au2S) determined using diamond-anvil cell synchrotron X-ray diffraction. Our data shows that Au2S has a simple cubic structure with six atoms in the unit cell (four Au in linear, and two S in tetrahedral, coordination), no internal degrees of freedom, and relatively low bulk modulus. Despite its structural simplicity, Au2S displays very unusual chemical bonding. The very similar and relatively high electronegativities of Au and S rule out any significant metallic or ionic character. Using a simple valence bond (Lewis) model, we argue that the Au2S crystal possesses two different types of cov…
Nonlinear pressure dependence of the direct band gap in adamantine ordered-vacancy compounds
A strong nonlinear pressure dependence of the optical absorption edge has been measured in defect chalcopyrites CdGa{sub 2}Se{sub 4} and HgGa{sub 2}Se{sub 4}. The behavior is due to the nonlinear pressure dependence of the direct band-gap energy in these compounds as confirmed by ab initio calculations. Our calculations for CdGa{sub 2}Se{sub 4}, HgGa{sub 2}Se{sub 4} and monoclinic {beta}-Ga{sub 2}Se{sub 3} provide evidence that the nonlinear pressure dependence of the direct band-gap energy is a general feature of adamantine ordered-vacancy compounds irrespective of their composition and crystalline structure. The nonlinear behavior is due to a conduction band anticrossing at the {Gamma} po…
Optical absorption of divalent metal tungstates: Correlation between the band-gap energy and the cation ionic radius
We have carried out optical-absorption and reflectance measurements at room temperature in single crystals of AWO4 tungstates (A = Ba, Ca, Cd, Cu, Pb, Sr, and Zn). From the experimental results their band-gap energy has been determined to be 5.26 eV (BaWO4), 5.08 eV (SrWO4), 4.94 eV (CaWO4), 4.15 eV (CdWO4), 3.9-4.4 eV (ZnWO4), 3.8-4.2 eV (PbWO4), and 2.3 eV (CuWO4). The results are discussed in terms of the electronic structure of the studied tungstates. It has been found that those compounds where only the s electron states of the A2+ cation hybridize with the O 2p and W 5d states (e.g BaWO4) have larger band-gap energies than those where also p, d, and f states of the A2+ cation contribu…
Phase behaviour of Ag2CrO4 under compression: Structural, vibrational, and optical properties
We have performed an experimental study of the crystal structure, lattice dynamics, and optical properties of silver chromate (Ag2CrO4) at ambient temperature and high pressures. In particular, the crystal structure, Raman-active phonons, and electronic band gap have been accurately determined. When the initial orthorhombic Pnma Ag2CrO4 structure (phase I) is compressed up to 4.5 GPa, a previously undetected phase (phase II) has been observed with a 0.95% volume collapse. The structure of phase II can be indexed to a similar orthorhombic cell as phase I, and the transition can be considered to be an isostructural transition. This collapse is mainly due to the drastic contraction of the a ax…
High pressure theoretical and experimental analysis of the bandgap of BaMoO4, PbMoO4, and CdMoO4
We have investigated the origin of the bandgap of BaMoO4, PbMoO4, and CdMoO4 crystals on the basis of optical absorption spectroscopy experiments and ab initio electronic band structure, density of states, and electronic localization function calculations under high pressure. Our study provides an accurate determination of the bandgaps Eg and their pressure derivatives d E g / dP for BaMoO4 (4.43 eV, −4.4 meV/GPa), PbMoO4 (3.45 eV, −53.8 meV/GPa), and CdMoO4 (3.71 eV, −3.3 meV/GPa). The absorption edges were fitted with the Urbach exponential model which we demonstrate to be the most appropriate for thick crystals with direct bandgaps. So far, the narrowing of the bandgap of distinct PbMoO4…
Crystal structure of BaCa(CO3)2 alstonite carbonate and its phase stability upon compression
Authors thank the financial support from the Spanish Ministerio de Ciencia, Innovación y Universidades (MICINN) and the Agencia Estatal de Investigación under projects MALTA Consolider Ingenio 2010 network (MAT2015-71070- REDC) and PGC2018-097520-A-I00 (cofinanced by EU FEDER funds) and from the Generalitat Valenciana under project PROMETEO/2018/123. D.S.-P. and A.O.R. acknowledge the financial support of the Spanish MINECO for RyC-2014-15643 and RyC-2016-20301 Ramón y Cajal grants, respectively. C.P. acknowledges the financial support from the Spanish Ministerio de Economia y Competitividad (MINECO project FIS2017-83295-P). Authors also thank Dr. Nicolescu and the Mineralogy and Meteoritic…
Irradiation effects in CaF2probed by Raman scattering
The formation conditions and dynamics of Ca colloids and point defects that appear in irradiated single crystals of CaF2 were investigated by Raman spectroscopy. The intensity changes in the Raman spectra because of the presence of different concentrations of point defects and Ca colloids that emerged in CaF2 after irradiation with 2.2 GeV Au ions were used to study their distribution and stability under illumination with three laser wavelengths (473, 532 and 633 nm) at different output powers (2 to 200 mW). A damage saturation at a fluence of 6 × 1011 ion cm−2 was observed. The dependence of the spectral changes on the ion fluence can be described by a core/halo damage cross-section model.…
High-pressure study of substrate material ScAlMgO4
We report on the structural properties of ScAlMgO4 studied under quasi-hydrostatic pressure using synchrotron high-pressure x-ray diffraction up to 40 GPa. We also report on single-crystal studies of ScAlMgO4 performed at 300 K and 100 K. We found that the low-pressure phase remains stable up to 24 GPa. At 28 GPa, we detected a reversible phase transformation. The high-pressure phase is assigned to a monoclinic distortion of the low-pressure phase. No additional phase transition is observed up to 40 GPa. In addition, the equation of state, compressibility tensor, and thermal expansion coefficients of ScAlMgO4 are determined. The bulk modulus of ScAlMgO4 is found to be 143(8) GPa, with a str…
Reversible Tuning of Ca Nanoparticles Embedded in a Superionic CaF2 Matrix
Controlling the size and shape of metallic colloids is crucial for a number of nanotechnological applications ranging from medical diagnosis to electronics. Yet, achieving tunability of morphological changes at the nanoscale is technically difficult and the structural modifications made on nanoparticles generally are irreversible. Here, we present a simple nonchemical method for controlling the size of metallic colloids in a reversible manner. Our strategy consists of applying hydrostatic pressure on a Ca cationic sublattice embedded in the irradiated matrix of CaF2 containing a large concentration of defects. Application of our method to CaF2 along with in situ optical absorption of the Ca…
Pressure-Induced Polymerization of Polycyclic Arene-Perfluoroarene Cocrystals: Single Crystal X-ray Diffraction Studies, Reaction Kinetics, and Design of Columnar Hydrofluorocarbons
Pressure-induced polymerization of aromatic compounds leads to novel materials containing sp3 carbon-bonded networks. The choice of the molecular species and the control of their arrangement in the crystal structures via intermolecular interactions, such as the arene–perfluoroarene interaction, can enable the design of target polymers. We have investigated the crystal structure compression and pressure-induced polymerization reaction kinetics of two polycyclic 1:1 arene–perfluoroarene cocrystals, naphthalene/octafluoronaphthalene (NOFN) and anthracene/octafluoronaphthalene (AOFN), up to 25 and 30 GPa, respectively, using single-crystal synchrotron X-ray diffraction, infrared spectroscopy, a…
Pressure-induced amorphization of the Y3Ga5O12 garnet studied to 1 Mbar
We use micro-beam synchrotron x-ray diffraction to study the pressure-induced amorphization of nano-sized and single crystals of Y3Ga5O12 up to pressures exceeding 1 Mbar in static compression. The abrupt pressure-induced amorphization found for both 56 nm and bulk micrometric crystals at around 76 GPa independently of the pressure transmitting medium employed demonstrates its intrinsic nature, previously predicted at 79 GPa by ab initio calculations. The single crystal structural solution at 50 GPa shows that the contraction of the unit-cell, mostly accommodated by the compressible YO8 dodecahedra, gives rise to a regularization and tilting increase of the GaO6 polyhedra with the Y?O-Ga an…
High-pressure structural and vibrational properties of monazite-type BiPO4, LaPO4, CePO4, and PrPO4
[EN] Monazite-type BiPO4, LaPO4, CePO4, and PrPO4 have been studied under high pressure by ab initio simulations and Raman spectroscopy measurements in the pressure range of stability of the monazite structure. A good agreement between experimental and theoretical Raman-active mode frequencies and pressure coefficients has been found which has allowed us to discuss the nature of the Raman-active modes. Besides, calculations have provided us with information on how the crystal structure is modified by pressure. This information has allowed us to determine the equation of state and the isothermal compressibility tensor of the four studied compounds. In addition, the information obtained on th…
An Ultrahigh CO2-Loaded Silicalite-1 Zeolite: Structural Stability and Physical Properties at High Pressures and Temperatures
[EN] We report the formation of an ultrahigh CO2-loaded pure-SiO2, silicalite-1 structure at high pressure (0.7 GPa) from the interaction of empty zeolite and fluid CO, medium. The CO2-filled structure was characterized in situ by means of synchrotron powder X-ray diffraction. Rietveld refinements and Fourier recycling allowed the location of 16 guest carbon dioxide molecules per unit cell within the straight and sinusoidal channels of the porous framework to be analyzed. The complete filling of pores by CO, molecules favors structural stability under compression, avoiding pressure-induced amorphization below 20 GPa, and significantly reduces the compressibility of the system compared to th…
Lattice and electronic contributions to the refractive index of CuWO4
We report an investigation of the refractive index dispersion and anisotropy in CuWO4 by means of interference measurements in two extinction directions from mid infrared to the visible region of the energy spectrum. The analysis of the refractive index dispersion yields ϵ(∞) = 4.5(1) for light polarization parallel to the c-axis and ϵ(∞) = 5.3(1) with respect to the other extinction axis. In addition, we report reflectance measurements carried out from the far infrared to the near ultraviolet to study the lattice and electronic contributions to the refractive index of CuWO4. We have determined the wavenumbers of nine infrared active lattice modes and compared them with previous ab initio c…
Experimental and Theoretical Study of Bi2O2Se Under Compression
[EN] We report a joint experimental and theoretical study of the structural, vibrational, elastic, optical, and electronic properties of the layered high-mobility semiconductor Bi2O2Se at high pressure. A good agreement between experiments and ab initio calculations is observed for the equation of state, the pressure coefficients of the Raman-active modes and the bandgap of the material. In particular, a detailed description of the vibrational properties is provided. Unlike other Sillen-type compounds which undergo a tetragonal to collapsed tetragonal pressure-induced phase transition at relatively low pressures, Bi2O2Se shows a remarkable structural stability up to 30 GPa; however, our res…
Brief Review of the Effects of Pressure on Wolframite-Type Oxides
In this article we review the advances that have been made on the understanding of the high-pressure structural, vibrational, and electronic properties of wolframite-type oxides since the first works in the early 1990s. Mainly tungstates, which are the best known wolframites, but also tantalates and niobates, with an isomorphic ambient-pressure wolframite structure, have been included in this review. Apart from estimating the bulk moduli of all known wolframites; the cation-oxygen bond distances and their change with pressure have been correlated with their compressibility. The composition variations of all wolframites have been employed to understand their different structural phase transi…
High-pressure structural and elastic properties of Tl2O3
The structural properties of Thallium (III) oxide (Tl2O3) have been studied both experimentally and theoretically under compression at room temperature. X-ray powder diffraction measurements up to 37.7 GPa have been complemented with ab initio total-energy calculations. The equation of state of Tl2O3 has been determined and compared to related compounds. It has been found experimentally that Tl2O3 remains in its initial cubic bixbyite-type structure up to 22.0 GPa. At this pressure, the onset of amorphization is observed, being the sample fully amorphous at 25.2 GPa. The sample retains the amorphous state after pressure release. To understand the pressure-induced amorphization process, we h…
Structural Behavior of Natural Silicate–Carbonate Spurrite Mineral, Ca5(SiO4)2(CO3), under High-Pressure, High-Temperature Conditions
We report on high-pressure and high-temperature angle-dispersive synchrotron X-ray diffraction and high-pressure Raman data up to 27 GPa and 700 K for natural silicate carbonate Ca5(SiO4)2(CO3) spurrite mineral. No phase transition was found in the studied P–T range. The room-temperature bulk modulus of spurrite using Ne as the pressure-transmitting medium is B0 = 77(1) GPa with a first-pressure derivative of B0′ = 5.9(2). The structure compression is highly anisotropic, the b axis being approximately 30% more compressible than the a and c axes. The volumetric thermal expansivity value around 8 GPa was estimated to be 4.1(3) × 10–5 K–1. A comparison with intimately related minerals CaCO3 ca…
Bandgap behavior and singularity of the domain-induced light scattering through the pressure-induced ferroelectric transition in relaxor ferroelectric A(x)Ba(1-x)Nb(2)O(6) (A: Sr,Ca)
[EN] In this letter, we have investigated the electronic structure of A(x)Ba(1-x)Nb(2)O(6) relaxor ferroelectrics on the basis of optical absorption spectroscopy in unpoled single crystals with A = Sr and Ca under high pressure. The direct character of the fundamental transition could be established by fitting Urbach's rule to the photon energy dependence of the absorption edge yielding bandgaps of 3.44(1) eV and 3.57(1) eV for A = Sr and Ca, respectively. The light scattering by ferroelectric domains in the pre-edge spectral range has been studied as a function of composition and pressure. After confirming with x-ray diffraction the occurrence of the previously observed ferroelectric to pa…
Compressibility and phase stability of iron-rich ankerite
ABSTRACT: The structure of the naturally occurring, iron-rich mineral Ca₁․₀₈(₆)Mg₀.₂₄(₂)Fe₀.₆₄(₄)Mn₀.₆₄(₄)(CO₃)₂ ankerite was studied in a joint experimental and computational study. Synchrotron X-ray powder diffraction measurements up to 20 GPa were complemented by density functional theory calculations. The rhombohedral ankerite structure is stable under compression up to 12 GPa. A third-order Birch-Murnaghan equation of state yields V₀ = 328.2(3) ų, bulk modulus B₀ = 89(4) GPa, and its first-pressure derivative B'₀ = 5.3(8)-values which are in good agreement with those obtained in our calculations for an ideal CaFe(CO₃)₂ ankerite composition. At 12 GPa, the iron-rich ankerite structure …
High-pressure electrical transport measurements on p-type GaSe and InSe
We performed high-pressure Hall effect and resistivity measurements in p-type GaSe and InSe up to 12 GPa. The pressure behaviour of the transport parameters shows dramatic differences between both materials. In GaSe, the hole concentration and mobility increase moderately and continuously. In InSe, the hole mobility raises rapidly and the hole concentration increases abruptly near 0.8 GPa. The observed results are attributed to the different pressure evolution of the valence-band structure in each material. In InSe a carrier-type inversion is also detected near 4.5 GPa.
Comparative study of the high-pressure behavior of ZnV2O6, Zn2V2O7, and Zn3V2O8
We report a study of the high-pressure structural behavior of ZnV2O6, Zn2V2O2, and Zn3V2O8, which has been explored by means of synchrotron powder x-ray diffraction. We found that ZnV2O6 and Zn3V2O8 remain in the ambient-pressure structure up to 15 GPa. In contrast, in the same pressure range, Zn2V2O2 undergoes three phase transitions at 0.7, 3.0, and 10.8 GPa, respectively. Possible crystal structures for the first and second high-pressure phases are proposed. Reasons for the distinctive behavior of Zn2V2O2 are discussed. The compressibility of the different polymorphs has been determined. The response to pressure is found to be anisotropic in all the considered compounds and the room-temp…
High-pressure structural phase transitions in CuWO4
We study the effects of pressure on the structural, vibrational, and magnetic behavior of cuproscheelite. We performed powder x-ray diffraction and Raman spectroscopy experiments up to 27 GPa as well as ab initio total-energy and lattice-dynamics calculations. Experiments provide evidence that a structural phase transition takes place at 10 GPa from the low-pressure triclinic phase (P-1) to a monoclinic wolframite-type structure (P2/c). Calculations confirmed this finding and indicate that the phase transformation involves a change in the magnetic order. In addition, the equation of state for the triclinic phase is determined: V0 = 132.8(2) A3, B0 = 139 (6) GPa and = 4. Furthermore, experim…
High-pressure phase transitions and compressibility of wolframite-type tungstates
This paper reports an investigation on the phase diagram and compressibility of wolframite-type tungstates by means of x-ray powder diffraction and absorption in a diamond-anvil cell and ab initio calculations. The diffraction experiments show that monoclinic wolframite-type MgWO4 suffers at least two phase transitions, the first one being to a triclinic polymorph with a structure similar to that of CuWO4 and FeMoO4-II. The onset of each transition is detected at 17.1 and 31 GPa. In ZnWO4 the onset of the monoclinic-triclinic transition has been also found at 15.1 GPa. These findings are supported by density-functional theory calculations, which predict the occurrence of additional transiti…
Growth, characterization, and high-pressure optical studies of CuWO4
Copper tungstate (CuWO4) crystals grown by the top-seeded solution growth method were characterized by X-ray diffraction, Raman scattering, and optical measurements. CuWO4 has a triclinic structure (P 1¯) with a = 4.709 A, b = 5.845 A, c = 4.884 A, α = 88.3°, β = 92.5°, and γ = 97.2°. It consists of corner-linked CuO6 and WO6 octahedra, the former having a pseudo-tetragonally elongated geometry caused by the Cu2+ Jahn–Teller effect. Fifteen out of the eighteen Raman modes of CuWO4 are reported, discussed, and compared with those of other tungstates. We also determined the indirect band-gap energy of CuWO4 (2.3 eV) and its negative pressure coefficient up to 25 GPa. The pressure evolution of…
The plastic crystalline A15 phase of dimethylaminoalane, [N(CH3)2–AlH2]3
A plastic crystalline phase of dimethylaminoalane has been discovered at T > 332 K. The phase transitions solid - plastic phase - liquid are fully reversible. The plastic crystalline phase exhibits a cubic unit cell, space group Pm3[combining macron]n, in which the dimethylaminoalane molecules rotate and adopt a structural arrangement reminiscent of the A15 phase.
Optical and structural study of the pressure-induced phase transition of CdWO$_4$
Physical review / B 95(17), 174105 (2017). doi:10.1103/PhysRevB.95.174105
Pressure-induced amorphization of YVO4:Eu3+ nanoboxes
A structural transformation from the zircon-type structure to an amorphous phase has been found in YVO4:Eu3+ nanoboxes at high pressures above 12.7 GPa by means of x-ray diffraction measurements. However, the pair distribution function of the high-pressure phase shows that the local structure of the amorphous phase is similar to the scheelite-type YVO4. These results are confirmed both by Raman spectroscopy and Eu3+ photoluminescence which detect the phase transition to a scheelite-type structure at 10.1 and 9.1 GPa, respectively. The irreversibility of the phase transition is observed with the three techniques after a maximum pressure in the upstroke of around 20 GPa. The existence of two …
Phase Stability of Natural Ni0.75Mg0.22Ca0.03CO3 Gaspeite Mineral at High Pressure and Temperature
[EN] Divalent metal carbonates play an important role in Earth's carbon cycle, but the effect of chemical substitution is still poorly known. In this work, we have studied the structural and vibrational properties of natural mineral gaspeite (Ni0.75Mg0.22Ca0.03CO3) under high pressure and temperature using in situ synchrotron X-ray diffraction and Raman spectroscopy in diamond-anvil cells. These experiments have been complemented by ab initio simulations. Synchrotron high-pressure XRD measurements at room temperature using He as the pressure transmitting medium have shown that the calcite-type structure is stable up to 23.3 GPa. A bulk modulus at zero pressure of B-0 = 105(2) GPa with B-0' …
HgGa2 Se4 under high pressure: An optical absorption study
High-pressure optical absorption measurements have been performed in defect chalcopyrite HgGa2Se4 to investigate the influence of pressure on the bandgap energy and its relation with the pressure-induced order–disorder processes that occur in this ordered-vacancy compound. Two different experiments have been carried out in which the sample undergoes either a partial or a total pressure-induced disorder process at 15.4 and 30.8 GPa, respectively. It has been found that the direct bandgap energies of the recovered samples at 1 GPa were around 0.15 and 0.23 eV smaller than that of the original sample, respectively, and that both recovered samples have different pressure coefficients of the dir…
Compression of Silver Sulfide: X-ray Diffraction Measurements and Total-Energy Calculations
[EN] Angle-dispersive X-ray diffraction measurements have been performed in acanthite, Ag2S, up to 18 GPa in order to investigate its high-pressure structural behavior. They have been complemented by ab initio electronic structure calculations. From our experimental data, we have determined that two different high-pressure phase transitions take place at 5 and 10.5 GPa. The first pressure-induced transition is from the initial anti-PbCl2-like monoclinic structure (space group P2(1)/n) to an orthorhombic Ag2Se-type structure (space group P2(1)2(1)2(1)). The compressibility of the lattice parameters and the equation of state of both phases have been determined. A second phase transition to a …
Phase Stability of Lanthanum Orthovanadate at High Pressure
The journal of physical chemistry / C 120(25), 13749 - 13762(2016). doi:10.1021/acs.jpcc.6b04782
Optical absorption and Raman spectroscopy of CuWO4
Th e electronic absorption and Raman spectra of CuWO4 are studied as a function of pressure in the 0 - 20 GPa range. The below-gap absorption bands at 1.15, 1.38 and 1.56 eV correspond to Cu 2+ d-transitions split by the Jahn-Teller distortion of CuO6 (Req = 1.98 A; Rax = 2.39 A; Qθ = 0.47 A). Pressure induces a strong reduction of the JT distortion up to 10 GPa. Above this pressure we observe, by optical absorption and Raman spectroscopy, a first-order phase transition at 11 GPa with phase coexistence in the 10-12 GPa range, as it is confirmed by Raman spectroscopy. The absorption spectra suggest that two different Cu 2+ sites are formed in the high pressure phase, each having rather diffe…
Unveiling the role of the lone electron pair in sesquioxides at high pressure: compressibility of β-Sb2O3
The structural, vibrational and electronic properties of the compressed beta-Sb2O3 polymorph, a.k.a. mineral valentinite, have been investigated in a joint experimental and theoretical study up to 23 GPa. The compressibility of the lattice parameters, unit-cell volume and polyhedral unit volume as well as the behaviour of its Raman- and IR-active modes under compression have been interpreted on the basis of ab initio theoretical simulations. Valentinite shows an unusual compressibility up to 15 GPa with four different pressure ranges, whose critical pressures are 2, 4, and 10 GPa. The pressure dependence of the main structural units, the lack of soft phonons, and the electronic density char…
High-pressure/high-temperature phase diagram of zinc
The phase diagram of zinc (Zn) has been explored up to 140 GPa and 6000K, by combining optical observations, x-ray diffraction, and ab initio calculations. In the pressure range covered by this study, Zn is found to retain a hexagonal close-packed (hcp) crystal symmetry up to the melting temperature. The known decrease of the axial ratio (c/a) of the hcp phase of Zn under compression is observed in x-ray diffraction experiments from 300K up to the melting temperature. The pressure at which c/a reaches root 3 (approximate to 10GPa) is slightly affected by temperature. When this axial ratio is reached, we observed that single crystals of Zn, formed at high temperature, break into multiple pol…
Compressibility and structural stability of ultra-incompressible bimetallic interstitial carbides and nitrides
We have investigated by means of high-pressure x-ray diffraction the structural stability of Pd 2Mo 3N, Ni 2Mo 3C 0.52N 0.48, Co 3Mo 3C 0.62N 0.38, and Fe 3Mo 3C. We have found that they remain stable in their ambient-pressure cubic phase at least up to 48 GPa. All of them have a bulk modulus larger than 330 GPa, the least compressible material being Fe 3Mo 3C, B 0 = 374(3) GPa. In addition, apparently a reduction of compressibility is detected as the carbon content is increased. The equation of state for each material is determined. A comparison with other refractory materials indicates that interstitial nitrides and carbides behave as ultra-incompressible materials. © 2012 American Physic…
Pressure and Temperature Effects on Low-Density Mg3Ca(CO3)4 Huntite Carbonate
Pressure (P)–volume (V)–temperature (T) relations of huntite [Mg3Ca(CO3)4] have been determined in situ up to 5 GPa and 500 °C using a resistive-heated diamond-anvil cell and synchrotron X-ray diff...
Anomalous High-Pressure Jahn-Teller Behavior inCuWO4
High-pressure optical-absorption measurements performed in CuWO4 up to 20 GPa provide experimental evidence of the persistence of the Jahn-Teller (JT) distortion in the whole pressure range both in the low-pressure triclinic and in the highpressure monoclinic phase. The electron-lattice coupling associated with the eg(Exe) and t2g(Txe) orbitals of Cu2+ in CuWO4 are obtained from correlations between the JT distortion of the CuO6 octahedron and the associated structure of Cu2+ d-electronic levels. This distortion and its associated JT energy (EJT) decrease upon compression in both phases. However, both the distortion and associated EJT increase sharply at the phase transition pressure (PT = …
High-pressure phase ofLaPO4studied by x-ray diffraction and second harmonic generation
The pressure-induced phase transition of monazite-type ${\mathrm{LaPO}}_{4}$ at $\ensuremath{\approx}26$ GPa is studied by single-crystal x-ray diffraction and second harmonic generation (SHG) up to 31 GPa. The structure of the postmonazite phase of ${\mathrm{LaPO}}_{4}$ has been obtained and it is shown that it corresponds to a post-barite-type structure with an acentric space group $P{2}_{1}{2}_{1}{2}_{1}$. A strong increase of the SHG signal at the transition confirms that the high-pressure polymorph is noncentrosymmetric. The phase transition involves a significant discontinuous decrease of the unit-cell volume by 6%, which is mainly due to a strong contraction of the $a$ lattice parame…
Structural evolution of CO2 filled pure silica LTA zeolite under high-pressure high-temperature conditions
[EN] The crystal structure of CO2-filled pure-SiO2 LTA zeolite has been studied at high pressures and temperatures using synchrotron-based X-ray powder diffraction. Its structure consists of 13 CO2 guest molecules, 12 of them accommodated in the large alpha-cages and one in the beta-cages, giving a SiO2/CO2 stoichiometric ratio smaller than 2. The structure remains stable under pressure up to 20 GPa with a slight pressure-dependent rhombohedral distortion, indicating that pressure-induced amorphization is prevented by the insertion of guest species in this open framework. The ambient temperature lattice compressibility has been determined. In situ high-pressure resistive-heating experiments…
Compressibility Systematics of Calcite-Type Borates: An Experimental and Theoretical Structural Study on ABO(3) (A = Al, Sc, Fe, and In)
The structural properties of calcite-type orthoborates ABO(3) (A = Al, Fe, Sc, and In) have been investigated at high pressures up to 32 GPa. They were studied experimentally using synchrotron powder X-ray diffraction and theoretically by means of ab initio total-energy calculations. We found that the calcite-type structure remains stable up to the highest pressure explored in the four studied compounds. Experimental and calculated static geometries (unit-cell parameters and internal coordinates), bulk moduli, and their pressure derivatives are in good agreement. The compressibility along the c axis is roughly three times that along the a axis. Our data clearly indicate that the compressibi…
High-pressure structural investigation of several zircon-type orthovanadates
Room temperature angle-dispersive x-ray diffraction measurements on zircon-type EuVO4, LuVO4, and ScVO4 were performed up to 27 GPa. In the three compounds we found evidence of a pressure-induced structural phase transformation from zircon to a scheelite-type structure. The onset of the transition is near 8 GPa, but the transition is sluggish and the low- and high-pressure phases coexist in a pressure range of about 10 GPa. In EuVO4 and LuVO4 a second transition to a M-fergusonite-type phase was found near 21 GPa. The equations of state for the zircon and scheelite phases are also determined. Among the three studied compounds, we found that ScVO4 is less compressible than EuVO4 and LuVO4, b…
High-Pressure High-Temperature Stability and Thermal Equation of State of Zircon-Type Erbium Vanadate.
Inorganic chemistry 57(21), 14005 - 14012 (2018). doi:10.1021/acs.inorgchem.8b01808
Effects of high pressure on the optical absorption spectrum of scintillating PbWO4 crystals
The pressure behavior of the absorption edge of PbWO4 was studied up to 15.3 GPa. It red-shifts at -71 meV/GPa below 6.1 GPa, but at 6.3 GPa the band-gap collapses from 3.5 eV to 2.75 eV. From 6.3 GPa to 11.1 GPa, the absorption edge moves with a pressure coefficient of -98 meV/GPa, undergoing additional changes at 12.2 GPa. The results are discussed in terms of the electronic structure of PbWO4 which attribute the behavior of the band-gap to changes in the local atomic structure. The changes observed at 6.3 GPa and 12.2 GPa are attributed to phase transitions.
Pressure effects on the electronic and optical properties ofAWO4wolframites (A =Cd, Mg, Mn, and Zn): The distinctive behavior of multiferroic MnWO4
The electronic band-structure and band-gap dependence on the $d$ character of ${A}^{2+}$ cation in $A$WO${}_{4}$ wolframite-type oxides is investigated for different compounds ($A$ $=$ Mg, Zn, Cd, and Mn) by means of optical-absorption spectroscopy and first-principles density-functional calculations. High pressure is used to tune their properties up to 10 GPa by changing the bonding distances establishing electronic to structural correlations. The effect of unfilled $d$ levels is found to produce changes in the nature of the band gap as well as its pressure dependence without structural changes. Thus, whereas Mg, Zn, and Cd, with empty or filled $d$ electron shells, give rise to direct and…
Structure Solution of the High-Pressure Phase of CuWO4 and Evolution of the Jahn–Teller Distortion
In this work, we have investigated the structural behavior of cuproscheelite up to 33.9 GPa by means of high-pressure single-crystal X-ray diffraction (SXRD) and extended X-ray absorption fine structure (EXAFS). According to EXAFS, beyond 9 GPa a phase transition takes place. On the basis of SXRD, the transition is from the triclinic (P1) structure to a monoclinic (P2/c) structure isotypic to wolframite. The transition implies abrupt changes of CuO6 and WO6 octahedra, but no coordination change. Further, we report the role played by the Jahn–Teller distortion of the CuO6 octahedra on the mechanism of the phase transition as well as the changes in the behavior of the Cu–O bonds for the tricl…
Phase segregation in Mg$_{x}$Zn$_{1-x}$O probed by optical absorption and photoluminescence at high pressure
The appearance of segregated wurtzite Mg$_x$Zn$_{1-x}$O with low Mg content in thin films with $x>0.3$ affected by phase separation, cannot be reliably probed with crystallographic techniques owing to its embedded nanocrystalline configuration. Here we show a high-pressure approach which exploits the distinctive behaviors under pressure of wurtzite Mg$_x$Zn$_{1-x}$O thin films with different Mg contents to unveil phase segregation for $x>0.3$. By using ambient conditions photoluminescence (PL), and with optical absorption and PL under high pressure for $x=0.3$ we show that the appearance of a segregated wurtzite phase with a magnesium content of x $\sim$ 0.1 is inherent to the wurtzit…
Microscopic evidence of a flat melting curve of tantalum
International audience; New data on the high-pressure melting curve of Ta up to 48GPa are reported. Evidence of melting from changes in sample texture was found in five different experiments using scanning electron microscopy. The obtained melting temperatures are in excellent agreement with earlier measurements using x-ray diffraction or the laser-speckled method but are in contrast with several theoretical calculations. The results are also compared with shock-wave data. These findings are of geophysical relevance because they confirm the validity of earlier experimental techniques that resulted in low melting slopes of the transition metals measured in the diamond-anvil cell, including i…
Post-tilleyite, a dense calcium silicate-carbonate phase
Scientific reports 9(1), 7898 (2019). doi:10.1038/s41598-019-44326-9
High-pressure Raman spectroscopy and lattice-dynamics calculations on scintillating MgWO4: Comparison with isomorphic compounds
Research was financed by the Spanish Ministerio de Educacion y Ciencia (MEC) under Grants No. MAT2010-21270-C04-01/02/04, and No. CSD-2007-00045. J. R.-F. thanks the MEC for support through the FPI program, as well as the SPP1236 central facility in Frankfurt for its use. F. J. M. acknowledges support from Vicerrectorado de Investigacion y Desarrollo de la Universitat Politecnica de Valencia (UPV) (Grant No. UPV2010-0096). A. M. and P. R.-H. acknowledge the supercomputer time provided by the Red Espanola de Supercomputacion. A. F. appreciates support from the German Research Foundation (Grant No. FR2491/2-1).
High-pressure structural phase transition inMnWO4
The pressure-induced phase transition of the multiferroic manganese tungstate MnWO4 is studied on single crystals using synchrotron x-ray diffraction and Raman spectroscopy. We observe the monoclinic P2/c to triclinic P (1) over bar phase transition at 20.1 GPa and get insight on the phase transition mechanism from the appearance of tilted triclinic domains. Selective Raman spectroscopy experiments with single crystals have shown that the onset of the phase transition occurs 5 GPa below the previously reported pressure obtained from experiments performed with powder samples.
Ambient-temperature high-pressure-induced ferroelectric phase transition in CaMnTi2O6
The ferroelectric to paraelectric phase transition of multiferroic ${\mathrm{CaMnTi}}_{2}{\mathrm{O}}_{6}$ has been investigated at high pressures and ambient temperature by second-harmonic generation (SHG), Raman spectroscopy, and powder and single-crystal x-ray diffraction. We have found that ${\mathrm{CaMnTi}}_{2}{\mathrm{O}}_{6}$ undergoes a pressure-induced structural phase transition ($P{4}_{2}mc\ensuremath{\rightarrow}P{4}_{2}/nmc$) at $\ensuremath{\sim}7\phantom{\rule{0.16em}{0ex}}\mathrm{GPa}$ to the same paraelectric structure found at ambient pressure and ${T}_{c}=630\phantom{\rule{0.16em}{0ex}}\mathrm{K}$. The continuous linear decrease of the SHG intensity that disappears at 7 …
A Brief Review of the Effects of Pressure on Wolframite-Type Oxides
In this article, we review the advances that have been made on the understanding of the high-pressure (HP) structural, vibrational, and electronic properties of wolframite-type oxides since the first works in the early 1990s. Mainly tungstates, which are the best known wolframites, but also tantalates and niobates, with an isomorphic ambient-pressure wolframite structure, have been included in this review. Apart from estimating the bulk moduli of all known wolframites, the cation–oxygen bond distances and their change with pressure have been correlated with their compressibility. The composition variations of all wolframites have been employed to understand their different structural phase …
CCDC 2011559: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011540: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011557: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011581: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011571: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011561: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011541: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011562: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852498: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011573: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011578: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011574: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011552: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011582: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 1827597: Experimental Crystal Structure Determination
Related Article: Tomas Marqueño, David Santamaria-Perez, Javier Ruiz-Fuertes, Raquel Chuliá-Jordán, Jose L. Jordá, Fernando Rey, Chris McGuire, Abby Kavner, Simon MacLeod, Dominik Daisenberger, Catalin Popescu, Placida Rodriguez-Hernandez, Alfonso Muñoz|2018|Inorg.Chem.|57|6447|doi:10.1021/acs.inorgchem.8b00523
CCDC 2011563: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011564: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011560: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011550: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011567: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011580: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011553: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852499: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011543: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011579: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011565: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011583: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852497: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011551: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011584: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011549: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011566: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011548: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011542: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011569: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852496: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011558: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011545: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011568: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011539: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852501: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011554: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011546: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011576: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011575: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 1852500: Experimental Crystal Structure Determination
Related Article: Javier Ruiz-Fuertes, Domingo Martínez-García, Tomás Marqueño, Daniel Errandonea, Simon G. MacLeod, Thomas Bernert, Eiken Haussühl, David Santamaría-Pérez, Jordi Ibáñez, Anitha Mallavarapu, S. Nagabhusan Achary, Catalin Popescu, and Marco Bettinelli|2018|Inorg.Chem.|57|14005|doi:10.1021/acs.inorgchem.8b01808
CCDC 2011577: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011544: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CSD 2044072: Experimental Crystal Structure Determination
Related Article: Juan Angel Sans, Francisco Javier Manjón, André Luis de Jesus Pereira, Javier Ruiz-Fuertes, Catalin Popescu, Alfonso Muñoz, Plácida Rodríguez-Hernández, Julio Pellicer-Porres, Vanesa Paula Cuenca-Gotor, Julia Contreras-García, Jordi Ibañez, and Virginia Monteseguro|2020|ICSD Communication|||
CCDC 2011572: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011570: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011556: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011547: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011555: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021
CCDC 2011585: Experimental Crystal Structure Determination
Related Article: Alexandra Friedrich, Ines E. Collings, Kamil F. Dziubek, Samuele Fanetti, Krzysztof Radacki, Javier Ruiz-Fuertes, Julio Pellicer-Porres, Michael Hanfland, Daniel Sieh, Roberto Bini, Stewart J. Clark, Todd B. Marder|2020|J.Am.Chem.Soc.|142|18907|doi:10.1021/jacs.0c09021