Crystallography Open Database

Result: there are 525804 entries in the selection

Switch to the old layout of the page

Download all results as: list of COD numbers | list of CIF URLs | data in CSV format

We are unable to provide that many records as a single archive.
You can instead download the entire COD archive as a single .zip, .tgz or .txz archive.

Displaying all data in COD

Blue left arrow Blue left arrow First | Blue left arrow Previous 300 | of 1753 | Next 300 Blue right arrow | Last Blue right arrow Blue right arrow | Display 5 20 50 100 200 300 500 1000 entries per page

COD ID Blue up arrow Links Formula Up arrow Space group Up arrow Cell parameters Cell volume Up arrow Bibliography
9006469 CIFMg OF m -3 m4.3272; 4.3272; 4.3272
90; 90; 90
81.025Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2055 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006470 CIFMg OF m -3 m4.3305; 4.3305; 4.3305
90; 90; 90
81.211Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2106 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006471 CIFMg OF m -3 m4.3425; 4.3425; 4.3425
90; 90; 90
81.888Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2245 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006472 CIFMg OF m -3 m4.3481; 4.3481; 4.3481
90; 90; 90
82.205Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2297 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006473 CIFMg OF m -3 m4.3554; 4.3554; 4.3554
90; 90; 90
82.62Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2395 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006474 CIFMg OF m -3 m4.3564; 4.3564; 4.3564
90; 90; 90
82.677Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2408 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006475 CIFMg OF m -3 m4.3741; 4.3741; 4.3741
90; 90; 90
83.689Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2592 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006476 CIFMg OF m -3 m4.3842; 4.3842; 4.3842
90; 90; 90
84.27Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2703 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006477 CIFMg OF m -3 m4.3915; 4.3915; 4.3915
90; 90; 90
84.691Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2785 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006478 CIFMg OF m -3 m4.3971; 4.3971; 4.3971
90; 90; 90
85.016Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2848 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006479 CIFMg OF m -3 m4.4041; 4.4041; 4.4041
90; 90; 90
85.422Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2912 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006480 CIFMg OF m -3 m4.4112; 4.4112; 4.4112
90; 90; 90
85.836Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2986 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006481 CIFMg OF m -3 m4.4195; 4.4195; 4.4195
90; 90; 90
86.322Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3031 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006482 CIFMg OF m -3 m4.4424; 4.4424; 4.4424
90; 90; 90
87.67Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3065 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006483 CIFMg OF m -3 m4.4453; 4.4453; 4.4453
90; 90; 90
87.842Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3086 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006484 CIFMg OF m -3 m4.4403; 4.4403; 4.4403
90; 90; 90
87.546Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3040 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006485 CIFMg OF m -3 m4.4166; 4.4166; 4.4166
90; 90; 90
86.152Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3015 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006486 CIFWI m -3 m3.1648; 3.1648; 3.1648
90; 90; 90
31.699Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 298 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006487 CIFWI m -3 m3.1672; 3.1672; 3.1672
90; 90; 90
31.771Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 455 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006488 CIFWI m -3 m3.1731; 3.1731; 3.1731
90; 90; 90
31.949Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 905 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006489 CIFWI m -3 m3.1738; 3.1738; 3.1738
90; 90; 90
31.97Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 918 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006490 CIFWI m -3 m3.1775; 3.1775; 3.1775
90; 90; 90
32.082Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1205 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006491 CIFWI m -3 m3.1804; 3.1804; 3.1804
90; 90; 90
32.17Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1363 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006492 CIFWI m -3 m3.1822; 3.1822; 3.1822
90; 90; 90
32.224Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1410 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006493 CIFWI m -3 m3.1837; 3.1837; 3.1837
90; 90; 90
32.27Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1527 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006494 CIFWI m -3 m3.1824; 3.1824; 3.1824
90; 90; 90
32.23Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1537 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006495 CIFWI m -3 m3.1866; 3.1866; 3.1866
90; 90; 90
32.358Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1685 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006496 CIFWI m -3 m3.1913; 3.1913; 3.1913
90; 90; 90
32.501Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1846 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006497 CIFWI m -3 m3.1908; 3.1908; 3.1908
90; 90; 90
32.486Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 1870 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006498 CIFWI m -3 m3.1926; 3.1926; 3.1926
90; 90; 90
32.541Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2032 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006499 CIFWI m -3 m3.1946; 3.1946; 3.1946
90; 90; 90
32.602Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2171 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006500 CIFWI m -3 m3.1979; 3.1979; 3.1979
90; 90; 90
32.704Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2310 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006501 CIFWI m -3 m3.2026; 3.2026; 3.2026
90; 90; 90
32.848Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2450 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006502 CIFWI m -3 m3.2079; 3.2079; 3.2079
90; 90; 90
33.011Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2620 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006503 CIFWI m -3 m3.2094; 3.2094; 3.2094
90; 90; 90
33.058Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2720 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006504 CIFWI m -3 m3.2116; 3.2116; 3.2116
90; 90; 90
33.126Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2774 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006505 CIFWI m -3 m3.2134; 3.2134; 3.2134
90; 90; 90
33.181Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2830 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006506 CIFWI m -3 m3.2165; 3.2165; 3.2165
90; 90; 90
33.277Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2929 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006507 CIFWI m -3 m3.2219; 3.2219; 3.2219
90; 90; 90
33.445Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3130 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006508 CIFWI m -3 m3.2238; 3.2238; 3.2238
90; 90; 90
33.505Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3190 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006509 CIFWI m -3 m3.2275; 3.2275; 3.2275
90; 90; 90
33.62Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3316 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006510 CIFWI m -3 m3.2332; 3.2332; 3.2332
90; 90; 90
33.799Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3470 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006511 CIFWI m -3 m3.2358; 3.2358; 3.2358
90; 90; 90
33.88Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3548 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006512 CIFWI m -3 m3.23; 3.23; 3.23
90; 90; 90
33.698Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3430 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006513 CIFWI m -3 m3.2248; 3.2248; 3.2248
90; 90; 90
33.536Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 3220 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006514 CIFWI m -3 m3.2166; 3.2166; 3.2166
90; 90; 90
33.281Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2986 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006515 CIFWI m -3 m3.2131; 3.2131; 3.2131
90; 90; 90
33.172Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2785 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006516 CIFWI m -3 m3.2099; 3.2099; 3.2099
90; 90; 90
33.073Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2650 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006517 CIFWI m -3 m3.2087; 3.2087; 3.2087
90; 90; 90
33.036Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2592 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006518 CIFWI m -3 m3.2015; 3.2015; 3.2015
90; 90; 90
32.814Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2395 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006519 CIFWI m -3 m3.1979; 3.1979; 3.1979
90; 90; 90
32.704Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2245 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006520 CIFWI m -3 m3.1946; 3.1946; 3.1946
90; 90; 90
32.602Dubrovinsky, L. S.; Saxena, S. K.
Thermal expansion of periclase (MgO) and tungsten (W) to melting temperatures Sample: T = 2055 K
Physics and Chemistry of Minerals, 1997, 24, 547-550
9006521 CIFCr2 S4 ZnF d -3 m :29.9736; 9.9736; 9.9736
90; 90; 90
992.101Wittlinger, J.; Werner, S.; Schulz, H.
On the amorphisation of ZnCr2S4 spinel under high pressure: x-ray diffraction studies Sample: P = 0 GPa
Physics and Chemistry of Minerals, 1997, 24, 597-600
9006522 CIFCr2 S4 ZnF d -3 m :29.9306; 9.9306; 9.9306
90; 90; 90
979.324Wittlinger, J.; Werner, S.; Schulz, H.
On the amorphisation of ZnCr2S4 spinel under high pressure: x-ray diffraction studies Sample: P = 1.06 GPa
Physics and Chemistry of Minerals, 1997, 24, 597-600
9006523 CIFCr2 S4 ZnF d -3 m :29.8415; 9.8415; 9.8415
90; 90; 90
953.2Wittlinger, J.; Werner, S.; Schulz, H.
On the amorphisation of ZnCr2S4 spinel under high pressure: x-ray diffraction studies Sample: P = 4.2 GPa
Physics and Chemistry of Minerals, 1997, 24, 597-600
9006524 CIFCr2 S4 ZnF d -3 m :29.7738; 9.7738; 9.7738
90; 90; 90
933.663Wittlinger, J.; Werner, S.; Schulz, H.
On the amorphisation of ZnCr2S4 spinel under high pressure: x-ray diffraction studies Sample: P = 7.19 GPa
Physics and Chemistry of Minerals, 1997, 24, 597-600
9006525 CIFAl2 O5 SiP b n m7.4857; 7.675; 5.7751
90; 90; 90
331.795Yang, H.; Hazen, R. M.; Finger, L. W.; Prewitt, C. T.; Downs, R. T.
Compressibility and crystal structure of sillimanite, Al2SiO5, at high pressure Sample: P = 0.00 GPa
Physics and Chemistry of Minerals, 1997, 25, 39-47
9006526 CIFAl2 O5 SiP b n m7.4732; 7.652; 5.7631
90; 90; 90
329.562Yang, H.; Hazen, R. M.; Finger, L. W.; Prewitt, C. T.; Downs, R. T.
Compressibility and crystal structure of sillimanite, Al2SiO5, at high pressure Sample: P = 1.23 GPa
Physics and Chemistry of Minerals, 1997, 25, 39-47
9006527 CIFAl2 O5 SiP b n m7.4537; 7.6238; 5.756
90; 90; 90
327.088Yang, H.; Hazen, R. M.; Finger, L. W.; Prewitt, C. T.; Downs, R. T.
Compressibility and crystal structure of sillimanite, Al2SiO5, at high pressure Sample: P = 2.54 GPa
Physics and Chemistry of Minerals, 1997, 25, 39-47
9006528 CIFAl2 O5 SiP b n m7.4345; 7.5989; 5.7507
90; 90; 90
324.88Yang, H.; Hazen, R. M.; Finger, L. W.; Prewitt, C. T.; Downs, R. T.
Compressibility and crystal structure of sillimanite, Al2SiO5, at high pressure Sample: P = 3.72 GPa
Physics and Chemistry of Minerals, 1997, 25, 39-47
9006529 CIFAl2 O5 SiP b n m7.4146; 7.5739; 5.745
90; 90; 90
322.624Yang, H.; Hazen, R. M.; Finger, L. W.; Prewitt, C. T.; Downs, R. T.
Compressibility and crystal structure of sillimanite, Al2SiO5, at high pressure Sample: P = 5.29 GPa
Physics and Chemistry of Minerals, 1997, 25, 39-47
9006530 CIFD2 Mn O2P -3 m 13.318; 3.318; 4.717
90; 90; 120
44.973Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 0.0 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006531 CIFD2 Mn O2P -3 m 13.305; 3.305; 4.675
90; 90; 120
44.224Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 0.7 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006532 CIFD2 Mn O2P -3 m 13.281; 3.281; 4.579
90; 90; 120
42.689Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 2.4 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006533 CIFD2 Mn O2P -3 m 13.25; 3.25; 4.497
90; 90; 120
41.136Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 4.6 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006534 CIFD2 Mn O2P -3 m 13.208; 3.208; 4.416
90; 90; 120
39.358Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 7.8 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006535 CIFCo D2 O2P -3 m 13.1834; 3.1834; 4.6445
90; 90; 120
40.762Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 0.0 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006536 CIFCo D2 O2P -3 m 13.167; 3.167; 4.6
90; 90; 120
39.956Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 0.5 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006537 CIFCo D2 O2P -3 m 13.139; 3.139; 4.483
90; 90; 120
38.254Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 3.3 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006538 CIFCo D2 O2P -3 m 13.109; 3.109; 4.414
90; 90; 120
36.949Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 5.6 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006539 CIFCo D2 O2P -3 m 13.084; 3.084; 4.363
90; 90; 120
35.937Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 7.5 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006540 CIFCo D2 O2P -3 m 13.059; 3.059; 4.283
90; 90; 120
34.709Parise, J. B.; Theroux, B.; Li, R.; Loveday, J. S.; Marshall, W. G.; Klotz, S.
Pressure dependence of hydrogen bonding in metal deuteroxides: a neutron powder diffraction study of Mn(OD)2 and beta-Co(OD)2. Sample: P = 9.5 GPa
Physics and Chemistry of Minerals, 1998, 25, 130-137
9006541 CIFMn7 O12 SiI 41/a c d :29.4264; 9.4264; 18.6962
90; 90; 90
1661.29Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample in air: P = 0.0001 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006542 CIFMn7 O12 SiI 41/a c d :29.4266; 9.4266; 18.6952
90; 90; 90
1661.27Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample in Diamond Anvil Cell without pressure medium: P = 0.0001 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006543 CIFMn7 O12 SiI 41/a c d :29.4007; 9.4007; 18.6574
90; 90; 90
1648.81Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample: P = 1.38 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006544 CIFMn7 O12 SiI 41/a c d :29.3786; 9.3786; 18.6234
90; 90; 90
1638.08Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample: P = 2.66 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006545 CIFMn7 O12 SiI 41/a c d :29.348; 9.348; 18.5739
90; 90; 90
1623.08Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample: P = 4.51 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006546 CIFMn7 O12 SiI 41/a c d :29.3309; 9.3309; 18.5455
90; 90; 90
1614.68Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample: P = 5.63 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006547 CIFMn7 O12 SiI 41/a c d :29.2998; 9.2998; 18.4957
90; 90; 90
1599.62Miletich, R.; Allan, D. R.; Angel, R. J.
Structural control of polyhedral compression in synthetic braunite, Mn2+Mn3+6O8SiO4 Sample: P = 7.69 GPa
Physics and Chemistry of Minerals, 1998, 25, 183-192
9006555 CIFFe0.39 Mg0.61 O3 SiP 1 21/c 19.6519; 8.9075; 5.2004
90; 108.59; 90
423.773Angel, R. J.; McCammon, C. A.; Woodland, A. B.
Structure, ordering and cation interactions in Ca-free P2_1/c clinopyroxenes Sample: H162 Note: x coordinate of O2B changed by author, May, 2004
Physics and Chemistry of Minerals, 1998, 25, 249-258
9006556 CIFAl2 Mg3 O12 Si3I a -3 d11.4545; 11.4545; 11.4545
90; 90; 90
1502.89Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 0.0 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006557 CIFAl2 Mg3 O12 Si3I a -3 d11.3846; 11.3846; 11.3846
90; 90; 90
1475.55Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 3.48 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006558 CIFAl2 Mg3 O12 Si3I a -3 d11.2893; 11.2893; 11.2893
90; 90; 90
1438.8Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 8.57 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006559 CIFAl2 Mg3 O12 Si3I a -3 d11.2353; 11.2353; 11.2353
90; 90; 90
1418.25Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 11.53 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006560 CIFAl2 Mg3 O12 Si3I a -3 d11.1717; 11.1717; 11.1717
90; 90; 90
1394.31Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 15.28 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006561 CIFAl2 Mg3 O12 Si3I a -3 d11.0335; 11.0335; 11.0335
90; 90; 90
1343.2Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 24.07 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006562 CIFAl2 Mg3 O12 Si3I a -3 d10.9339; 10.9339; 10.9339
90; 90; 90
1307.15Zhang, L.; Ahsbahs, H.; Kutoglu, A.
Hydrostatic compression and crystal structure of pyrope to 33 GPa Sample: P = 32.47 GPa
Physics and Chemistry of Minerals, 1998, 25, 301-307
9006563 CIFAl1.388 Ca0.742 Fe0.162 Mg0.016 O6 Si1.5C 1 2/c 19.719; 8.814; 5.305
90; 106.04; 90
436.752Okui, M.; Sawada, H.; Marumo, F.
Structure refinement of a nonstoichiometric pyroxene synthesized under ambient pressure
Physics and Chemistry of Minerals, 1998, 25, 318-322
9006564 CIFAl0.536 Fe2 H2 Na0.5 O12 Si3.464C 1 2/m 15.277; 9.14; 9.78
90; 101; 90
463.04Manceau, A.; Chateigner, D.; Gates, W. P.
Polarized EXAFS, distance-valence least-squares modelling (DVLS), and quantitative texture analysis approaches to the structural refinement of Garfield nontronite
Physics and Chemistry of Minerals, 1998, 25, 347-365
9006565 CIFFe6.5 H2 Mg0.1 Mn0.4 O24 Si8P n m n9.388; 18.387; 5.347
90; 90; 90
922.984Sueno, S.; Matsuura, S.; Gibbs, G. V.; Boisen, M. B.
A crystal chemical study of protoanthophyllite: orthoamphiboles with the protoamphibole structure Sample: PFA Hiruka Village
Physics and Chemistry of Minerals, 1998, 25, 366-377
9006566 CIFFe4.699 H2 Mg0.901 Mn1.4 O24 Si8P n m n9.425; 18.303; 5.345
90; 90; 90
922.043Sueno, S.; Matsuura, S.; Gibbs, G. V.; Boisen, M. B.
A crystal chemical study of protoanthophyllite: orthoamphiboles with the protoamphibole structure Sample: PMFA Yokene Mine
Physics and Chemistry of Minerals, 1998, 25, 366-377
9006567 CIFCd K2 O4 SiF -4 3 m7.947; 7.947; 7.947
90; 90; 90
501.891Dollase, W. A.
Transformations of the stuffed cristobalites, K2MSiO4, M = Mg, Zn, Co, Cd, with temperature and composition
Physics and Chemistry of Minerals, 1998, 25, 389-392
9006568 CIFCa O5 Si2P -17.243; 7.546; 6.501
81.43; 84.82; 69.6
329.031Kudoh, Y.; Kanzaki, M.
Crystal chemical characteristics of alpha-CaSi2O5, a new high pressure calcium silicate with five-coordinated silicon synthesized at 1500 C and 10 GPa
Physics and Chemistry of Minerals, 1998, 25, 429-433
9006569 CIFAl1.839 Cr0.078 Fe0.283 Mg0.777 Ni0.014 O4 Si0.003 Zn0.007F d -3 m :28.1252; 8.1252; 8.1252
90; 90; 90
536.417Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B1, unheated, T = 25 C
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006570 CIFAl1.835 Cr0.078 Fe0.29 Mg0.774 Ni0.014 O4 Si0.002 Zn0.007F d -3 m :28.1233; 8.1233; 8.1233
90; 90; 90
536.04Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B2, quenched from T = 1150 C after 3 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006571 CIFAl1.839 Cr0.078 Fe0.283 Mg0.777 Ni0.014 O4 Si0.003 Zn0.007F d -3 m :28.1218; 8.1218; 8.1218
90; 90; 90
535.743Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B3, quenched from T = 1150 C after 5 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006572 CIFAl1.835 Cr0.079 Fe0.221 Mg0.775 Ni0.014 O4 Zn0.007F d -3 m :28.107; 8.107; 8.107
90; 90; 90
532.82Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B4, quenched from T = 1150 C after 27 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006573 CIFAl1.84 Cr0.078 Fe0.213 Mg0.776 Ni0.014 O4 Si0.003 Zn0.007F d -3 m :28.1082; 8.1082; 8.1082
90; 90; 90
533.057Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B5, quenched from T = 1150 C after 49 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006574 CIFAl1.838 Cr0.078 Fe0.216 Mg0.776 Ni0.014 O4 Si0.002 Zn0.007F d -3 m :28.106; 8.106; 8.106
90; 90; 90
532.623Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B6, quenched from T = 1150 C after 202 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006575 CIFAl1.839 Cr0.078 Fe0.216 Mg0.776 Ni0.014 O4 Si0.002 Zn0.007F d -3 m :28.111; 8.111; 8.111
90; 90; 90
533.609Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: TS11B7, temperature lowered from T = 1150 C to 280 C in 117 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006576 CIFAl1.808 Cr0.127 Fe0.225 Mg0.825 Ni0.008 O4 Si0.001 Ti0.004 Zn0.002F d -3 m :28.1259; 8.1259; 8.1259
90; 90; 90
536.555Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: LE20A1, unheated
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006577 CIFAl1.802 Cr0.125 Fe0.219 Mg0.808 Ni0.008 O4 Si0.001 Ti0.004 Zn0.002F d -3 m :28.1171; 8.1171; 8.1171
90; 90; 90
534.814Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: LE20A3, quenched from T = 1150 C after 0.5 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006578 CIFAl1.775 Cr0.125 Fe0.218 Mg0.808 Ni0.008 O4 Si0.002 Ti0.004 Zn0.002F d -3 m :28.1166; 8.1166; 8.1166
90; 90; 90
534.715Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: LE20A4, quenched from T = 1150 C after 5.5 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006579 CIFAl1.771 Cr0.125 Fe0.222 Mg0.808 Ni0.009 O4 Si0.001 Ti0.004 Zn0.002F d -3 m :28.1142; 8.1142; 8.1142
90; 90; 90
534.241Menegazzo, G.; Carbonin, S.
Oxidation mechanisms in Al-Mg-Fe spinels. A second stage: alpha-Fe2O3 exsolution Sample: LE20A5, quenched from T = 1150 C after 30.5 hours
Physics and Chemistry of Minerals, 1998, 25, 541-547
9006580 CIFAl O3 ScP b n m4.9371; 5.2322; 7.2042
90; 90; 90
186.098Ross, N. L.
High pressure study of ScAlO3 perovskite Sample: P = 0.0 GPa
Physics and Chemistry of Minerals, 1998, 25, 597-602
9006581 CIFAl O3 ScP b n m4.9192; 5.2155; 7.1684
90; 90; 90
183.913Ross, N. L.
High pressure study of ScAlO3 perovskite Sample: P = 2.58 GPa
Physics and Chemistry of Minerals, 1998, 25, 597-602
9006582 CIFAl O3 ScP b n m4.9149; 5.2121; 7.162
90; 90; 90
183.469Ross, N. L.
High pressure study of ScAlO3 perovskite Sample: P = 3.21 GPa
Physics and Chemistry of Minerals, 1998, 25, 597-602
9006583 CIFAl O3 ScP b n m4.904; 5.2033; 7.1416
90; 90; 90
182.232Ross, N. L.
High pressure study of ScAlO3 perovskite Sample: P = 4.72 GPa
Physics and Chemistry of Minerals, 1998, 25, 597-602
9006584 CIFMn5 O12 Si3I a -3 d11.788; 11.788; 11.788
90; 90; 90
1638.02Arlt, T.; Armbruster, T.; Miletich, R.; Ulmer, P.; Peters, T.
High pressure single-crystal synthesis, structure and compressibility of the garnet Mn2+3Mn3+2[SiO4]3 Sample: T = 100 K
Physics and Chemistry of Minerals, 1998, 26, 100-106
9006585 CIFMn5 O12 Si3I a -3 d11.801; 11.801; 11.801
90; 90; 90
1643.45Arlt, T.; Armbruster, T.; Miletich, R.; Ulmer, P.; Peters, T.
High pressure single-crystal synthesis, structure and compressibility of the garnet Mn2+3Mn3+2[SiO4]3 Sample: T = 298 K
Physics and Chemistry of Minerals, 1998, 26, 100-106
9006586 CIFAl1.01 H2 O8.79 Si2.99 Sr0.517P 1 21/m 16.676; 16.547; 7.543
90; 94.41; 90
830.791Alberti, A.; Sacerdoti, M.; Quartieri, S.; Vezzalini, G.
Heating-induced phase transformation in zeolite brewsterite: new 4- and 5-coordinated (Si,Al) sites Sample: BR280R
Physics and Chemistry of Minerals, 1999, 26, 181-186
9006587 CIFFeI m -3 m2.8654; 2.8654; 2.8654
90; 90; 90
23.526Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 0.0 GPa, T = 298 K, prior to experiment
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006588 CIFFeI m -3 m2.8658; 2.8658; 2.8658
90; 90; 90
23.536Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 0.0 GPa, T = 300 K, after experiment
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006589 CIFFeI m -3 m2.8591; 2.8591; 2.8591
90; 90; 90
23.372Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 1.3 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006590 CIFFeI m -3 m2.8484; 2.8484; 2.8484
90; 90; 90
23.11Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.0 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006591 CIFFeI m -3 m2.8409; 2.8409; 2.8409
90; 90; 90
22.928Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 4.3 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006592 CIFFeI m -3 m2.8339; 2.8339; 2.8339
90; 90; 90
22.759Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 5.6 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006593 CIFFeI m -3 m2.8285; 2.8285; 2.8285
90; 90; 90
22.629Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.6 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006594 CIFFeI m -3 m2.8213; 2.8213; 2.8213
90; 90; 90
22.457Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.1 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006595 CIFFeI m -3 m2.8652; 2.8652; 2.8652
90; 90; 90
23.521Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 1.8 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006596 CIFFeI m -3 m2.8544; 2.8544; 2.8544
90; 90; 90
23.257Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.6 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006597 CIFFeI m -3 m2.8468; 2.8468; 2.8468
90; 90; 90
23.071Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 4.9 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006598 CIFFeI m -3 m2.8396; 2.8396; 2.8396
90; 90; 90
22.897Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.1 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006599 CIFFeI m -3 m2.8339; 2.8339; 2.8339
90; 90; 90
22.759Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 7.2 GPa, T = 572 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006600 CIFFeI m -3 m2.826; 2.826; 2.826
90; 90; 90
22.569Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.7 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006601 CIFFeI m -3 m2.8716; 2.8716; 2.8716
90; 90; 90
23.679Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 2.3 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006602 CIFFeI m -3 m2.8599; 2.8599; 2.8599
90; 90; 90
23.391Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.9 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006603 CIFFeI m -3 m2.8515; 2.8515; 2.8515
90; 90; 90
23.186Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 5.3 GPa, T = 774 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006604 CIFFeI m -3 m2.8434; 2.8434; 2.8434
90; 90; 90
22.989Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.6 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006605 CIFFeI m -3 m2.8373; 2.8373; 2.8373
90; 90; 90
22.841Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 7.7 GPa, T = 774 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006606 CIFFeI m -3 m2.8317; 2.8317; 2.8317
90; 90; 90
22.706Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.9 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006607 CIFFe0.91 Si0.09I m -3 m2.8429; 2.8429; 2.8429
90; 90; 90
22.977Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 0.0 GPa, T = 298 K, prior to the experiment
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006608 CIFFe0.91 Si0.09I m -3 m2.8436; 2.8436; 2.8436
90; 90; 90
22.994Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 0.0 GPa, T = 300 K, after the experiment
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006609 CIFFe0.91 Si0.09I m -3 m2.8369; 2.8369; 2.8369
90; 90; 90
22.831Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 1.3 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006610 CIFFe0.91 Si0.09I m -3 m2.827; 2.827; 2.827
90; 90; 90
22.593Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.0 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006611 CIFFe0.91 Si0.09I m -3 m2.819; 2.819; 2.819
90; 90; 90
22.402Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 4.3 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006612 CIFFe0.91 Si0.09I m -3 m2.8121; 2.8121; 2.8121
90; 90; 90
22.238Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 5.6 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006613 CIFFe0.91 Si0.09I m -3 m2.8063; 2.8063; 2.8063
90; 90; 90
22.101Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.6 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006614 CIFFe0.91 Si0.09I m -3 m2.7995; 2.7995; 2.7995
90; 90; 90
21.94Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.1 GPa, T = 299 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006615 CIFFe0.91 Si0.09I m -3 m2.8438; 2.8438; 2.8438
90; 90; 90
22.998Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 1.8 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006616 CIFFe0.91 Si0.09I m -3 m2.8335; 2.8335; 2.8335
90; 90; 90
22.749Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.6 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006617 CIFFe0.91 Si0.09I m -3 m2.8251; 2.8251; 2.8251
90; 90; 90
22.548Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 4.9 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006618 CIFFe0.91 Si0.09I m -3 m2.818; 2.818; 2.818
90; 90; 90
22.378Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.1 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006619 CIFFe0.91 Si0.09I m -3 m2.812; 2.812; 2.812
90; 90; 90
22.235Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 7.2 GPa, T = 572 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006620 CIFFe0.91 Si0.09I m -3 m2.8063; 2.8063; 2.8063
90; 90; 90
22.101Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.7 GPa, T = 573 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006621 CIFFe0.91 Si0.09I m -3 m2.8492; 2.8492; 2.8492
90; 90; 90
23.13Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 2.3 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006622 CIFFe0.91 Si0.09I m -3 m2.8392; 2.8392; 2.8392
90; 90; 90
22.887Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 3.9 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006623 CIFFe0.91 Si0.09I m -3 m2.8304; 2.8304; 2.8304
90; 90; 90
22.675Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 5.3 GPa, T = 774 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006624 CIFFe0.91 Si0.09I m -3 m2.8224; 2.8224; 2.8224
90; 90; 90
22.483Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 6.6 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006625 CIFFe0.91 Si0.09I m -3 m2.8159; 2.8159; 2.8159
90; 90; 90
22.328Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 7.7 GPa, T = 774 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006626 CIFFe0.91 Si0.09I m -3 m2.8105; 2.8105; 2.8105
90; 90; 90
22.2Zhang, J.; Guyot, F.
Thermal equation of iron and Fe0.91Si0.09 Sample: P = 8.9 GPa, T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 206-211
9006627 CIFAl1.971 Fe0.23 Mg0.7 O4F d -3 m :28.067; 8.067; 8.067
90; 90; 90
524.972Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 300 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006628 CIFAl1.971 Fe0.23 Mg0.7 O4F d -3 m :28.0811; 8.0811; 8.0811
90; 90; 90
527.73Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 523 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006629 CIFAl1.971 Fe0.23 Mg0.7 O4F d -3 m :28.0973; 8.0973; 8.0973
90; 90; 90
530.91Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 773 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006630 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1115; 8.1115; 8.1115
90; 90; 90
533.708Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 973 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006631 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1256; 8.1256; 8.1256
90; 90; 90
536.496Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 1123 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006632 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1437; 8.1437; 8.1437
90; 90; 90
540.089Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 1273 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006633 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1612; 8.1612; 8.1612
90; 90; 90
543.578Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 1423 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006634 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1768; 8.1768; 8.1768
90; 90; 90
546.701Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 1573 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006635 CIFAl1.969 Fe0.23 Mg0.701 O4F d -3 m :28.1907; 8.1907; 8.1907
90; 90; 90
549.494Pavese, A.; Artioli, G.; Russo, U.; Hoser, A.
Cation partitioning versus temperature in (Mg0.70Fe0.23)Al1.97O4 synthetic spinel by in situ neutron powder diffraction Sample: T = 1723 K
Physics and Chemistry of Minerals, 1999, 26, 242-250
9006636 CIFMg1.82 O4 SiC 1 2/m 1 (a+c-1/4,b+1/4,c)5.674; 11.477; 8.235
90; 90.21; 90
536.264Kudoh, Y.; Inoue, T.
Mg-vacant structural modules and dilution of the symmetry of hydrous wadsleyite, beta-Mg2-xSiH2xO4 with 0.00<=x<=0.25 Sample: 0.3H-beta
Physics and Chemistry of Minerals, 1999, 26, 382-388
9006637 CIFMg1.72 O4 SiC 1 2/m 1 (a+c-1/4,b+1/4,c)5.675; 11.579; 8.244
90; 90.09; 90
541.719Kudoh, Y.; Inoue, T.
Mg-vacant structural modules and dilution of the symmetry of hydrous wadsleyite, beta-Mg2-xSiH2xO4 with 0.00<=x<=0.25 Sample: 0.5H-beta
Physics and Chemistry of Minerals, 1999, 26, 382-388
9006638 CIFLa0.34 Na0.45 O3 Th0.13 TiI 4/m c m5.4652; 5.4652; 7.7476
90; 90; 90
231.409Mitchell, R. H.; Chakhmouradian, A. R.
Solid solubility in the system NaLREETi2O6 - ThTi2O6 (LREE, light rare-earth elements): experimental and analytical data
Physics and Chemistry of Minerals, 1999, 26, 396-405
9006639 CIFO6 Th Ti2C 1 2/m 19.814; 3.8228; 7.0313
90; 118.82; 90
231.119Mitchell, R. H.; Chakhmouradian, A. R.
Solid solubility in the system NaLREETi2O6 - ThTi2O6 (LREE, light rare-earth elements): experimental and analytical data
Physics and Chemistry of Minerals, 1999, 26, 396-405
9006640 CIFCr2 O4 SiF d d d :25.7005; 11.1651; 9.5847
90; 90; 90
610.034Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample in air: P = 0.0001 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006641 CIFCr2 O4 SiF d d d :25.7007; 11.1653; 9.585
90; 90; 90
610.085Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample in diamond anvil cell: P = 0.0001 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006642 CIFCr2 O4 SiF d d d :25.6804; 11.1174; 9.3842
90; 90; 90
592.624Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample: P = 3.106 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006643 CIFCr2 O4 SiF d d d :25.665; 11.0863; 9.2742
90; 90; 90
582.456Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample: P = 5.303 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006644 CIFCr2 O4 SiF d d d :25.6512; 11.0598; 9.191
90; 90; 90
574.448Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample: P = 7.300 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006645 CIFCr2 O4 SiF d d d :25.6374; 11.0375; 9.1192
90; 90; 90
567.422Miletich, R.; Nowak, M.; Seifert, F.; Angel, R. J.; Brandstatter, G.
High-pressure crystal chemistry of chromous orthosilicate, Cr2SiO4. A single-crystal X-ray diffraction and electronic absorption spectroscopy study Sample: P = 9.220 GPa
Physics and Chemistry of Minerals, 1999, 26, 446-459
9006646 CIFCa D4 O6 SI 1 2/a 15.6769; 15.2074; 6.5277
90; 118.494; 90
495.279Knight, K. S.; Stretton, I. C.; Schofield, P. F.
Temperature evolution between 50 K and 320 K of the thermal expansion tensor of gypsum derived from neutron powder diffraction data Sample: T = 320 K
Physics and Chemistry of Minerals, 1999, 26, 477-483
9006647 CIFAl4 Co2 O18 Si5P 6/m c c9.841; 9.841; 9.372
90; 90; 120
786.034Knorr, K.; Meschke, M.; Winkler, B.
Structural and magnetic properties of Co2Al4Si5O18 and Mn2Al4Si5O18 cordierite
Physics and Chemistry of Minerals, 1999, 26, 521-529
9006648 CIFAl4 Mn2 O18 Si5C c c m17.128; 9.764; 9.147
90; 90; 90
1529.72Knorr, K.; Meschke, M.; Winkler, B.
Structural and magnetic properties of Co2Al4Si5O18 and Mn2Al4Si5O18 cordierite
Physics and Chemistry of Minerals, 1999, 26, 521-529
9006649 CIFMg OF m -3 m3.899; 3.899; 3.899
90; 90; 90
59.273Dubrovinsky, L. S.; Lazor, P.; Saxena, S. K.; Haggkvist, P.; Weber, H. P.; Le Bihan, T.; Hausermann, D.
Study of laser heated iron using third generation synchrotron X-ray radiation facility with imaging plate at high pressures Sample: P = 61 GPa, T = 300 K
Physics and Chemistry of Minerals, 1999, 26, 539-545
9006650 CIFMg OF m -3 m3.897; 3.897; 3.897
90; 90; 90
59.182Dubrovinsky, L. S.; Lazor, P.; Saxena, S. K.; Haggkvist, P.; Weber, H. P.; Le Bihan, T.; Hausermann, D.
Study of laser heated iron using third generation synchrotron X-ray radiation facility with imaging plate at high pressures Sample: P = 61 GPa, T = 1550 K
Physics and Chemistry of Minerals, 1999, 26, 539-545
9006651 CIFCa O5 Si SnA 1 2/a 17.156; 8.875; 6.66
90; 113.38; 90
388.244Zhang, M.; Meyer, H. W.; Groat, L. A.; Bismayer, U.; Salje, E. K. H.; Adiwidjaja, G.
An infrared spectroscopic and single-crystal X-ray study of malayaite, CaSnSiO5 Sample: T = 300 K
Physics and Chemistry of Minerals, 1999, 26, 546-553
9006652 CIFCa O5 Si SnA 1 2/a 17.16; 8.897; 6.672
90; 113.34; 90
390.244Zhang, M.; Meyer, H. W.; Groat, L. A.; Bismayer, U.; Salje, E. K. H.; Adiwidjaja, G.
An infrared spectroscopic and single-crystal X-ray study of malayaite, CaSnSiO5 Sample: T = 450 K
Physics and Chemistry of Minerals, 1999, 26, 546-553
9006653 CIFCa O5 Si SnA 1 2/a 17.166; 8.903; 6.678
90; 113.39; 90
391.038Zhang, M.; Meyer, H. W.; Groat, L. A.; Bismayer, U.; Salje, E. K. H.; Adiwidjaja, G.
An infrared spectroscopic and single-crystal X-ray study of malayaite, CaSnSiO5 Sample: T = 550 K Note: U33 for O1 has been altered by personal communication with authors, Dec 2003
Physics and Chemistry of Minerals, 1999, 26, 546-553
9006654 CIFCa O5 Si SnA 1 2/a 17.173; 8.901; 6.683
90; 113.36; 90
391.714Zhang, M.; Meyer, H. W.; Groat, L. A.; Bismayer, U.; Salje, E. K. H.; Adiwidjaja, G.
An infrared spectroscopic and single-crystal X-ray study of malayaite, CaSnSiO5 Sample: T = 670 K
Physics and Chemistry of Minerals, 1999, 26, 546-553
9006655 CIFCa O5 Si SnA 1 2/a 17.167; 8.912; 6.688
90; 113.36; 90
392.163Zhang, M.; Meyer, H. W.; Groat, L. A.; Bismayer, U.; Salje, E. K. H.; Adiwidjaja, G.
An infrared spectroscopic and single-crystal X-ray study of malayaite, CaSnSiO5 Sample: T = 730 K Note: x-coordinate of O1 altered from the value reported
Physics and Chemistry of Minerals, 1999, 26, 546-553
9006656 CIFFeP 63/m m c2.347; 2.347; 3.797
90; 90; 120
18.113Dubrovinsky, L. S.; Lazor, P.; Saxena, S. K.; Haggkvist, P.; Weber, H. P.; Le Bihan, T.; Hausermann, D.
Study of laser heated iron using third generation synchrotron X-ray radiation facility with imaging plate at high pressures Sample: epsilon iron phase: P = 61 GPa, T = 300 K
Physics and Chemistry of Minerals, 1999, 26, 539-545
9006657 CIFFeP 63/m m c2.346; 2.346; 3.808
90; 90; 120
18.15Dubrovinsky, L. S.; Lazor, P.; Saxena, S. K.; Haggkvist, P.; Weber, H. P.; Le Bihan, T.; Hausermann, D.
Study of laser heated iron using third generation synchrotron X-ray radiation facility with imaging plate at high pressures Sample epsilon iron phase: P = 61 GPa, T = 1550 K
Physics and Chemistry of Minerals, 1999, 26, 539-545
9006658 CIFMn OF m -3 m4.4459; 4.4459; 4.4459
90; 90; 90
87.878Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.00 GPa at beginning of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006659 CIFMn OF m -3 m4.4464; 4.4464; 4.4464
90; 90; 90
87.907Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.00 GPa at end of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006660 CIFMn OF m -3 m4.4397; 4.4397; 4.4397
90; 90; 90
87.511Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.68 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006661 CIFMn OF m -3 m4.4326; 4.4326; 4.4326
90; 90; 90
87.091Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 1.43 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006662 CIFMn OF m -3 m4.4254; 4.4254; 4.4254
90; 90; 90
86.668Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 2.16 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006663 CIFMn OF m -3 m4.4169; 4.4169; 4.4169
90; 90; 90
86.169Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 3.09 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006664 CIFMn OF m -3 m4.4106; 4.4106; 4.4106
90; 90; 90
85.801Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 3.73 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006665 CIFMn OF m -3 m4.4042; 4.4042; 4.4042
90; 90; 90
85.428Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 4.46 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006666 CIFMn OF m -3 m4.3963; 4.3963; 4.3963
90; 90; 90
84.969Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 5.41 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006667 CIFMn OF m -3 m4.3891; 4.3891; 4.3891
90; 90; 90
84.552Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 6.17 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006668 CIFMn OF m -3 m4.3846; 4.3846; 4.3846
90; 90; 90
84.293Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 6.73 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006669 CIFMn OF m -3 m4.3792; 4.3792; 4.3792
90; 90; 90
83.982Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 7.27 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006670 CIFMn OF m -3 m4.3726; 4.3726; 4.3726
90; 90; 90
83.602Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 8.09 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006671 CIFCd OF m -3 m4.6963; 4.6963; 4.6963
90; 90; 90
103.578Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.00 GPa at beginning of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006672 CIFCd OF m -3 m4.6969; 4.6969; 4.6969
90; 90; 90
103.618Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.00 GPa at end of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006673 CIFCd OF m -3 m4.69; 4.69; 4.69
90; 90; 90
103.162Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 0.68 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006674 CIFCd OF m -3 m4.6821; 4.6821; 4.6821
90; 90; 90
102.641Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 1.43 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006675 CIFCd OF m -3 m4.6749; 4.6749; 4.6749
90; 90; 90
102.168Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 2.16 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006676 CIFCd OF m -3 m4.6656; 4.6656; 4.6656
90; 90; 90
101.56Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 3.09 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006677 CIFCd OF m -3 m4.6598; 4.6598; 4.6598
90; 90; 90
101.182Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 3.73 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006678 CIFCd OF m -3 m4.6522; 4.6522; 4.6522
90; 90; 90
100.687Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 4.46 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006679 CIFCd OF m -3 m4.6433; 4.6433; 4.6433
90; 90; 90
100.111Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 5.41 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006680 CIFCd OF m -3 m4.6366; 4.6366; 4.6366
90; 90; 90
99.678Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 6.17 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006681 CIFCd OF m -3 m4.6309; 4.6309; 4.6309
90; 90; 90
99.311Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 6.73 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006682 CIFCd OF m -3 m4.6259; 4.6259; 4.6259
90; 90; 90
98.989Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 7.27 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006683 CIFCd OF m -3 m4.619; 4.619; 4.619
90; 90; 90
98.547Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #1: P = 8.09 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006684 CIFCd OF m -3 m4.6953; 4.6953; 4.6953
90; 90; 90
103.512Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 0.00 GPa at beginning of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006685 CIFCd OF m -3 m4.6956; 4.6956; 4.6956
90; 90; 90
103.532Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 0.00 GPa at end of experiment
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006686 CIFCd OF m -3 m4.6833; 4.6833; 4.6833
90; 90; 90
102.72Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 1.25 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006687 CIFCd OF m -3 m4.6708; 4.6708; 4.6708
90; 90; 90
101.9Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 2.56 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006688 CIFCd OF m -3 m4.6595; 4.6595; 4.6595
90; 90; 90
101.162Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 3.59 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006689 CIFCd OF m -3 m4.6502; 4.6502; 4.6502
90; 90; 90
100.558Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 4.52 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006690 CIFCd OF m -3 m4.6438; 4.6438; 4.6438
90; 90; 90
100.143Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 5.30 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006691 CIFCd OF m -3 m4.6371; 4.6371; 4.6371
90; 90; 90
99.71Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 6.01 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006692 CIFCd OF m -3 m4.6217; 4.6217; 4.6217
90; 90; 90
98.72Zhang, J.
Room temperature compressibilities of MnO and CdO: further examination of the role of cation type in bulk modulus systematics Sample from Run #2: P = 7.80 GPa
Physics and Chemistry of Minerals, 1999, 26, 644-648
9006693 CIFAl4 Ca O11 Si2P 63/m m c5.4223; 5.4223; 12.7041
90; 90; 120
323.476Gautron, L.; Angel, R. J.; Miletich, R.
Structural characterisation of the high-pressure phase CaAl4Si2O11 Note: Biso values altered to agree with the anisotropic values, as indicated by Ross Angel, March 2004
Physics and Chemistry of Minerals, 1999, 27, 47-51
9006694 CIFCa OF m -3 m4.815; 4.815; 4.815
90; 90; 90
111.632Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 298 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006695 CIFCa OF m -3 m4.819; 4.819; 4.819
90; 90; 90
111.91Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 407 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006696 CIFCa OF m -3 m4.827; 4.827; 4.827
90; 90; 90
112.469Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 500 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006697 CIFCa OF m -3 m4.833; 4.833; 4.833
90; 90; 90
112.889Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 585 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006698 CIFCa OF m -3 m4.841; 4.841; 4.841
90; 90; 90
113.45Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 688 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006699 CIFCa OF m -3 m4.846; 4.846; 4.846
90; 90; 90
113.802Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 778 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006700 CIFCa OF m -3 m4.857; 4.857; 4.857
90; 90; 90
114.579Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 875 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006701 CIFCa OF m -3 m4.867; 4.867; 4.867
90; 90; 90
115.288Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1001 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006702 CIFCa OF m -3 m4.876; 4.876; 4.876
90; 90; 90
115.929Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1116 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006703 CIFCa OF m -3 m4.882; 4.882; 4.882
90; 90; 90
116.357Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1222 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006704 CIFCa OF m -3 m4.887; 4.887; 4.887
90; 90; 90
116.715Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1289 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006705 CIFCa OF m -3 m4.894; 4.894; 4.894
90; 90; 90
117.217Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1390 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006706 CIFCa OF m -3 m4.902; 4.902; 4.902
90; 90; 90
117.793Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1485 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006707 CIFCa OF m -3 m4.909; 4.909; 4.909
90; 90; 90
118.298Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1573 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006708 CIFCa OF m -3 m4.915; 4.915; 4.915
90; 90; 90
118.733Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1656 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006709 CIFCa OF m -3 m4.926; 4.926; 4.926
90; 90; 90
119.532Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1812 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006710 CIFCa OF m -3 m4.913; 4.913; 4.913
90; 90; 90
118.588Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1882 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006711 CIFCa OF m -3 m4.937; 4.937; 4.937
90; 90; 90
120.334Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: PtRh10% heating wire, T = 1964 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006712 CIFCa OF m -3 m4.811; 4.811; 4.811
90; 90; 90
111.354Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 300 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006713 CIFCa OF m -3 m4.819; 4.819; 4.819
90; 90; 90
111.91Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 398 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006714 CIFCa OF m -3 m4.823; 4.823; 4.823
90; 90; 90
112.189Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 528 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006715 CIFCa OF m -3 m4.83; 4.83; 4.83
90; 90; 90
112.679Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 664 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006716 CIFCa OF m -3 m4.842; 4.842; 4.842
90; 90; 90
113.521Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 844 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006717 CIFCa OF m -3 m4.857; 4.857; 4.857
90; 90; 90
114.579Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1022 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006718 CIFCa OF m -3 m4.888; 4.888; 4.888
90; 90; 90
116.787Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1292 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006719 CIFCa OF m -3 m4.898; 4.898; 4.898
90; 90; 90
117.505Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1427 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006720 CIFCa OF m -3 m4.901; 4.901; 4.901
90; 90; 90
117.721Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1548 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006721 CIFCa OF m -3 m4.908; 4.908; 4.908
90; 90; 90
118.226Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1659 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006722 CIFCa OF m -3 m4.912; 4.912; 4.912
90; 90; 90
118.515Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1733 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006723 CIFCa OF m -3 m4.914; 4.914; 4.914
90; 90; 90
118.66Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1711 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006724 CIFCa OF m -3 m4.92; 4.92; 4.92
90; 90; 90
119.095Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1808 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006725 CIFCa OF m -3 m4.933; 4.933; 4.933
90; 90; 90
120.042Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1959 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006726 CIFCa OF m -3 m4.945; 4.945; 4.945
90; 90; 90
120.92Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2114 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006727 CIFCa OF m -3 m4.956; 4.956; 4.956
90; 90; 90
121.729Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2222 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006728 CIFCa OF m -3 m4.965; 4.965; 4.965
90; 90; 90
122.393Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2303 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006729 CIFCa OF m -3 m4.973; 4.973; 4.973
90; 90; 90
122.986Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2362 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006730 CIFCa OF m -3 m4.977; 4.977; 4.977
90; 90; 90
123.283Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2407 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006731 CIFCa OF m -3 m4.813; 4.813; 4.813
90; 90; 90
111.493Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 298 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006732 CIFCa OF m -3 m4.891; 4.891; 4.891
90; 90; 90
117.002Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1473 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006733 CIFCa OF m -3 m4.907; 4.907; 4.907
90; 90; 90
118.154Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1673 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006734 CIFCa OF m -3 m4.915; 4.915; 4.915
90; 90; 90
118.733Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1773 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006735 CIFCa OF m -3 m4.925; 4.925; 4.925
90; 90; 90
119.459Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1873 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006736 CIFCa OF m -3 m4.932; 4.932; 4.932
90; 90; 90
119.969Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1973 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006737 CIFCa OF m -3 m4.943; 4.943; 4.943
90; 90; 90
120.774Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2073 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006738 CIFCa OF m -3 m4.95; 4.95; 4.95
90; 90; 90
121.287Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2173 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006739 CIFCa OF m -3 m4.964; 4.964; 4.964
90; 90; 90
122.319Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2273 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006740 CIFCa OF m -3 m4.969; 4.969; 4.969
90; 90; 90
122.689Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2373 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006741 CIFCa OF m -3 m4.976; 4.976; 4.976
90; 90; 90
123.209Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2473 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006742 CIFCa OF m -3 m4.987; 4.987; 4.987
90; 90; 90
124.028Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2573 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006743 CIFCa OF m -3 m4.997; 4.997; 4.997
90; 90; 90
124.775Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2673 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006744 CIFCa OF m -3 m5.009; 5.009; 5.009
90; 90; 90
125.676Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2773 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006745 CIFCa OF m -3 m5.025; 5.025; 5.025
90; 90; 90
126.884Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2973 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006746 CIFCa OF m -3 m5.03; 5.03; 5.03
90; 90; 90
127.264Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 3073 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006747 CIFMg OF m -3 m4.21; 4.21; 4.21
90; 90; 90
74.618Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 298 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006748 CIFMg OF m -3 m4.216; 4.216; 4.216
90; 90; 90
74.938Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 421 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006749 CIFMg OF m -3 m4.222; 4.222; 4.222
90; 90; 90
75.258Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 505 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006750 CIFMg OF m -3 m4.226; 4.226; 4.226
90; 90; 90
75.472Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 591 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006751 CIFMg OF m -3 m4.232; 4.232; 4.232
90; 90; 90
75.794Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 694 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006752 CIFMg OF m -3 m4.237; 4.237; 4.237
90; 90; 90
76.063Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 790 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006753 CIFMg OF m -3 m4.244; 4.244; 4.244
90; 90; 90
76.441Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 874 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006754 CIFMg OF m -3 m4.249; 4.249; 4.249
90; 90; 90
76.711Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 964 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006755 CIFMg OF m -3 m4.257; 4.257; 4.257
90; 90; 90
77.146Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1052 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006756 CIFMg OF m -3 m4.261; 4.261; 4.261
90; 90; 90
77.363Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1120 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006757 CIFMg OF m -3 m4.267; 4.267; 4.267
90; 90; 90
77.691Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1211 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006758 CIFMg OF m -3 m4.276; 4.276; 4.276
90; 90; 90
78.183Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1281 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006759 CIFMg OF m -3 m4.275; 4.275; 4.275
90; 90; 90
78.128Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1335 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006760 CIFMg OF m -3 m4.282; 4.282; 4.282
90; 90; 90
78.513Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1446 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006761 CIFMg OF m -3 m4.293; 4.293; 4.293
90; 90; 90
79.119Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1557 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006762 CIFMg OF m -3 m4.303; 4.303; 4.303
90; 90; 90
79.674Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1738 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006763 CIFMg OF m -3 m4.319; 4.319; 4.319
90; 90; 90
80.566Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 1901 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006764 CIFMg OF m -3 m4.326; 4.326; 4.326
90; 90; 90
80.958Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2036 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006765 CIFMg OF m -3 m4.336; 4.336; 4.336
90; 90; 90
81.521Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2153 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006766 CIFMg OF m -3 m4.343; 4.343; 4.343
90; 90; 90
81.916Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2262 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006767 CIFMg OF m -3 m4.355; 4.355; 4.355
90; 90; 90
82.597Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: IR wire, T = 2385 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006768 CIFMg OF m -3 m4.212; 4.212; 4.212
90; 90; 90
74.725Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 298 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006769 CIFMg OF m -3 m4.281; 4.281; 4.281
90; 90; 90
78.458Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1474 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006770 CIFMg OF m -3 m4.297; 4.297; 4.297
90; 90; 90
79.341Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1664 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006771 CIFMg OF m -3 m4.305; 4.305; 4.305
90; 90; 90
79.785Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1773 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006772 CIFMg OF m -3 m4.31; 4.31; 4.31
90; 90; 90
80.063Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1873 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006773 CIFMg OF m -3 m4.322; 4.322; 4.322
90; 90; 90
80.734Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 1973 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006774 CIFMg OF m -3 m4.324; 4.324; 4.324
90; 90; 90
80.846Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2073 K
Physics and Chemistry of Minerals, 1999, 27, 103-111
9006775 CIFMg OF m -3 m4.343; 4.343; 4.343
90; 90; 90
81.916Fiquet, G.; Richet, P.; Montagnac, G.
High-temperature thermal expansion of lime, periclase, corundum and spinel Sample: Re wire, T = 2273 K
Physics and Chemistry of Minerals, 1999, 27, 103-111

Blue left arrow Blue left arrow First | Blue left arrow Previous 300 | of 1753 | Next 300 Blue right arrow | Last Blue right arrow Blue right arrow | Display 5 20 50 100 200 300 500 1000 entries per page

Back to the search form
Your own data is not in the COD? Deposit it, thanks!