Crystallography Open Database

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Searching journal of publication like 'American Mineralogist' volume of publication is 89

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9003232 CIFCl K0.4 Na0.6F m -3 m5.9778; 5.9778; 5.9778
90; 90; 90
213.611Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57076, T = 550 C, P = 9.6 kbar, cell volume = 213.61 ang**3
American Mineralogist, 2004, 89, 204-210
9003233 CIFCl K0.4 Na0.6F m -3 m5.9123; 5.9123; 5.9123
90; 90; 90
206.666Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54390, T = 550 C, P = 13.2 kbar, cell volume = 206.67 ang**3
American Mineralogist, 2004, 89, 204-210
9003234 CIFCl K0.4 Na0.6F m -3 m5.8884; 5.8884; 5.8884
90; 90; 90
204.17Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57144, T = 550 C, P = 17.8 kbar, cell volume = 204.17 ang**3
American Mineralogist, 2004, 89, 204-210
9003235 CIFCl K0.4 Na0.6F m -3 m5.8515; 5.8515; 5.8515
90; 90; 90
200.356Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57204, T = 550 C, P = 22.9 kbar, cell volume = 200.36 ang**3
American Mineralogist, 2004, 89, 204-210
9003236 CIFCl K0.4 Na0.6F m -3 m6.1046; 6.1046; 6.1046
90; 90; 90
227.495Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als4k40, T = 600 C, P = 0.0 kbar, cell volume = 227.50 ang**3
American Mineralogist, 2004, 89, 204-210
9003237 CIFCl K0.4 Na0.6F m -3 m5.9146; 5.9146; 5.9146
90; 90; 90
206.907Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54382, T = 600 C, P = 14.1 kbar, cell volume = 206.91 ang**3
American Mineralogist, 2004, 89, 204-210
9003238 CIFCl K0.4 Na0.6F m -3 m5.9121; 5.9121; 5.9121
90; 90; 90
206.645Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54414, T = 600 C, P = 14.1 kbar, cell volume = 206.65 ang**3
American Mineralogist, 2004, 89, 204-210
9003239 CIFCl K0.4 Na0.6F m -3 m5.9108; 5.9108; 5.9108
90; 90; 90
206.509Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54426, T = 600 C, P = 14.1 kbar, cell volume = 206.51 ang**3
American Mineralogist, 2004, 89, 204-210
9003240 CIFCl K0.4 Na0.6F m -3 m5.8823; 5.8823; 5.8823
90; 90; 90
203.536Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53017, T = 600 C, P = 18.4 kbar, cell volume = 203.54 ang**3
American Mineralogist, 2004, 89, 204-210
9003241 CIFCl K0.4 Na0.6F m -3 m5.8598; 5.8598; 5.8598
90; 90; 90
201.209Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54482, T = 600 C, P = 20.4 kbar, cell volume = 201.21 ang**3
American Mineralogist, 2004, 89, 204-210
9003242 CIFCl K0.4 Na0.6F m -3 m5.8478; 5.8478; 5.8478
90; 90; 90
199.976Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54470, T = 600 C, P = 21.2 kbar, cell volume = 199.98 ang**3
American Mineralogist, 2004, 89, 204-210
9003243 CIFCl K0.4 Na0.6F m -3 m5.8843; 5.8843; 5.8843
90; 90; 90
203.744Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53021, T = 625 C, P = 18.3 kbar, cell volume = 203.74 ang**3
American Mineralogist, 2004, 89, 204-210
9003244 CIFCl K0.4 Na0.6F m -3 m6.1264; 6.1264; 6.1264
90; 90; 90
229.941Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als3k40, T = 650 C, P = 0.0 kbar, cell volume = 229.94 ang**3
American Mineralogist, 2004, 89, 204-210
9003245 CIFCl K0.4 Na0.6F m -3 m5.9911; 5.9911; 5.9911
90; 90; 90
215.04Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57068, T = 650 C, P = 11.5 kbar, cell volume = 215.04 ang**3
American Mineralogist, 2004, 89, 204-210
9003246 CIFCl K0.4 Na0.6F m -3 m5.9123; 5.9123; 5.9123
90; 90; 90
206.666Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54366, T = 650 C, P = 15.9 kbar, cell volume = 206.67 ang**3
American Mineralogist, 2004, 89, 204-210
9003247 CIFCl K0.4 Na0.6F m -3 m5.8919; 5.8919; 5.8919
90; 90; 90
204.534Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53025, T = 650 C, P = 18.2 kbar, cell volume = 204.53 ang**3
American Mineralogist, 2004, 89, 204-210
9003248 CIFCl K0.4 Na0.6F m -3 m5.8989; 5.8989; 5.8989
90; 90; 90
205.264Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57136, T = 650 C, P = 19.6 kbar, cell volume = 205.26 ang**3
American Mineralogist, 2004, 89, 204-210
9003249 CIFCl K0.4 Na0.6F m -3 m5.8552; 5.8552; 5.8552
90; 90; 90
200.736Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57196, T = 650 C, P = 25.2 kbar, cell volume = 200.74 ang**3
American Mineralogist, 2004, 89, 204-210
9003250 CIFCl K0.4 Na0.6F m -3 m5.8954; 5.8954; 5.8954
90; 90; 90
204.899Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53029, T = 675 C, P = 18.1 kbar, cell volume = 204.90 ang**3
American Mineralogist, 2004, 89, 204-210
9003251 CIFCl K0.4 Na0.6F m -3 m5.9961; 5.9961; 5.9961
90; 90; 90
215.579Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57064, T = 700 C, P = 12.5 kbar, cell volume = 215.58 ang**3
American Mineralogist, 2004, 89, 204-210
9003252 CIFCl K0.4 Na0.6F m -3 m5.9237; 5.9237; 5.9237
90; 90; 90
207.864Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54370, T = 700 C, P = 16.0 kbar, cell volume = 207.86 ang**3
American Mineralogist, 2004, 89, 204-210
9003253 CIFCl K0.4 Na0.6F m -3 m5.9237; 5.9237; 5.9237
90; 90; 90
207.864Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53053, T = 700 C, P = 16.3 kbar, cell volume = 207.86 ang**3
American Mineralogist, 2004, 89, 204-210
9003254 CIFCl K0.4 Na0.6F m -3 m5.9111; 5.9111; 5.9111
90; 90; 90
206.54Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53041, T = 700 C, P = 18.0 kbar, cell volume = 206.54 ang**3
American Mineralogist, 2004, 89, 204-210
9003255 CIFCl K0.4 Na0.6F m -3 m5.8999; 5.8999; 5.8999
90; 90; 90
205.369Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57132, T = 700 C, P = 20.6 kbar, cell volume = 205.37 ang**3
American Mineralogist, 2004, 89, 204-210
9003256 CIFCl K0.4 Na0.6F m -3 m5.8655; 5.8655; 5.8655
90; 90; 90
201.797Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54474, T = 700 C, P = 22.1 kbar, cell volume = 201.80 ang**3
American Mineralogist, 2004, 89, 204-210
9003257 CIFCl K0.4 Na0.6F m -3 m5.8566; 5.8566; 5.8566
90; 90; 90
200.88Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r57240, T = 700 C, P = 26.0 kbar, cell volume = 200.88 ang**3
American Mineralogist, 2004, 89, 204-210
9003258 CIFCl K0.4 Na0.6F m -3 m5.9236; 5.9236; 5.9236
90; 90; 90
207.853Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53049, T = 750 C, P = 17.2 kbar, cell volume = 207.85 ang**3
American Mineralogist, 2004, 89, 204-210
9003216 CIFCl K0.5 Na0.5F m -3 m5.9904; 5.9904; 5.9904
90; 90; 90
214.965Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: b&w, T = 25 C, P = 0.0 kbar, cell volume = 214.96 ang**3
American Mineralogist, 2004, 89, 204-210
9003217 CIFCl K0.5 Na0.5F m -3 m6.1262; 6.1262; 6.1262
90; 90; 90
229.918Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als4k50, T = 500 C, P = 0.0 kbar, cell volume = 229.92 ang**3
American Mineralogist, 2004, 89, 204-210
9003218 CIFCl K0.5 Na0.5F m -3 m6.1449; 6.1449; 6.1449
90; 90; 90
232.03Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als3k50, T = 550 C, P = 0.0 kbar, cell volume = 232.03 ang**3
American Mineralogist, 2004, 89, 204-210
9003219 CIFCl K0.5 Na0.5F m -3 m6.166; 6.166; 6.166
90; 90; 90
234.429Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als2k50, T = 600 C, P = 0.0 kbar, cell volume = 234.43 ang**3
American Mineralogist, 2004, 89, 204-210
9003220 CIFCl K0.5 Na0.5F m -3 m6.1899; 6.1899; 6.1899
90; 90; 90
237.165Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als1k50, T = 650 C, P = 0.0 kbar, cell volume = 237.16 ang**3
American Mineralogist, 2004, 89, 204-210
9003183 CIFCl K0.6 Na0.4F m -3 m6.0541; 6.0541; 6.0541
90; 90; 90
221.896Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: b&w, T = 25 C, P = 0.0 kbar, cell volume = 221.90 ang**3
American Mineralogist, 2004, 89, 204-210
9003184 CIFCl K0.6 Na0.4F m -3 m6.0023; 6.0023; 6.0023
90; 90; 90
216.248Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54811, T = 400 C, P = 15.0 kbar, cell volume = 216.25 ang**3
American Mineralogist, 2004, 89, 204-210
9003185 CIFCl K0.6 Na0.4F m -3 m6.0684; 6.0684; 6.0684
90; 90; 90
223.472Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54935, T = 450 C, P = 8.8 kbar, cell volume = 223.47 ang**3
American Mineralogist, 2004, 89, 204-210
9003186 CIFCl K0.6 Na0.4F m -3 m6.069; 6.069; 6.069
90; 90; 90
223.538Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54883, T = 450 C, P = 8.9 kbar, cell volume = 223.54 ang**3
American Mineralogist, 2004, 89, 204-210
9003187 CIFCl K0.6 Na0.4F m -3 m6.0041; 6.0041; 6.0041
90; 90; 90
216.443Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54807, T = 450 C, P = 15.7 kbar, cell volume = 216.44 ang**3
American Mineralogist, 2004, 89, 204-210
9003188 CIFCl K0.6 Na0.4F m -3 m6.1957; 6.1957; 6.1957
90; 90; 90
237.832Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als13k60, T = 500 C, P = 0.0 kbar, cell volume = 237.83 ang**3
American Mineralogist, 2004, 89, 204-210
9003189 CIFCl K0.6 Na0.4F m -3 m6.0687; 6.0687; 6.0687
90; 90; 90
223.505Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54907, T = 500 C, P = 9.8 kbar, cell volume = 223.50 ang**3
American Mineralogist, 2004, 89, 204-210
9003190 CIFCl K0.6 Na0.4F m -3 m6.0731; 6.0731; 6.0731
90; 90; 90
223.991Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54927, T = 500 C, P = 9.8 kbar, cell volume = 223.99 ang**3
American Mineralogist, 2004, 89, 204-210
9003191 CIFCl K0.6 Na0.4F m -3 m6.0724; 6.0724; 6.0724
90; 90; 90
223.914Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54879, T = 500 C, P = 10.1 kbar, cell volume = 223.91 ang**3
American Mineralogist, 2004, 89, 204-210
9003192 CIFCl K0.6 Na0.4F m -3 m6.0448; 6.0448; 6.0448
90; 90; 90
220.875Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r52113, T = 500 C, P = 11.9 kbar, cell volume = 220.87 ang**3
American Mineralogist, 2004, 89, 204-210
9003193 CIFCl K0.6 Na0.4F m -3 m6.0066; 6.0066; 6.0066
90; 90; 90
216.714Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54803, T = 500 C, P = 16.5 kbar, cell volume = 216.71 ang**3
American Mineralogist, 2004, 89, 204-210
9003194 CIFCl K0.6 Na0.4F m -3 m6.216; 6.216; 6.216
90; 90; 90
240.178Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als12k60, T = 550 C, P = 0.0 kbar, cell volume = 240.18 ang**3
American Mineralogist, 2004, 89, 204-210
9003195 CIFCl K0.6 Na0.4F m -3 m6.0785; 6.0785; 6.0785
90; 90; 90
224.589Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54875, T = 550 C, P = 11.2 kbar, cell volume = 224.59 ang**3
American Mineralogist, 2004, 89, 204-210
9003196 CIFCl K0.6 Na0.4F m -3 m6.0483; 6.0483; 6.0483
90; 90; 90
221.259Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r52105, T = 550 C, P = 12.6 kbar, cell volume = 221.26 ang**3
American Mineralogist, 2004, 89, 204-210
9003197 CIFCl K0.6 Na0.4F m -3 m6.0081; 6.0081; 6.0081
90; 90; 90
216.876Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54795, T = 550 C, P = 17.3 kbar, cell volume = 216.88 ang**3
American Mineralogist, 2004, 89, 204-210
9003198 CIFCl K0.6 Na0.4F m -3 m6.2395; 6.2395; 6.2395
90; 90; 90
242.912Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als11k60, T = 600 C, P = 0.0 kbar, cell volume = 242.91 ang**3
American Mineralogist, 2004, 89, 204-210
9003199 CIFCl K0.6 Na0.4F m -3 m6.2339; 6.2339; 6.2339
90; 90; 90
242.259Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als5k60, T = 600 C, P = 0.0 kbar, cell volume = 242.26 ang**3
American Mineralogist, 2004, 89, 204-210
9003200 CIFCl K0.6 Na0.4F m -3 m6.2355; 6.2355; 6.2355
90; 90; 90
242.445Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als6k60, T = 600 C, P = 0.0 kbar, cell volume = 242.45 ang**3
American Mineralogist, 2004, 89, 204-210
9003201 CIFCl K0.6 Na0.4F m -3 m6.0747; 6.0747; 6.0747
90; 90; 90
224.168Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54911, T = 600 C, P = 11.5 kbar, cell volume = 224.17 ang**3
American Mineralogist, 2004, 89, 204-210
9003202 CIFCl K0.6 Na0.4F m -3 m6.0691; 6.0691; 6.0691
90; 90; 90
223.549Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54863, T = 600 C, P = 12.4 kbar, cell volume = 223.55 ang**3
American Mineralogist, 2004, 89, 204-210
9003203 CIFCl K0.6 Na0.4F m -3 m6.0385; 6.0385; 6.0385
90; 90; 90
220.185Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r52081, T = 600 C, P = 15.4 kbar, cell volume = 220.18 ang**3
American Mineralogist, 2004, 89, 204-210
9003204 CIFCl K0.6 Na0.4F m -3 m6.005; 6.005; 6.005
90; 90; 90
216.54Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54827, T = 600 C, P = 18.8 kbar, cell volume = 216.54 ang**3
American Mineralogist, 2004, 89, 204-210
9003205 CIFCl K0.6 Na0.4F m -3 m6.2601; 6.2601; 6.2601
90; 90; 90
245.326Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als9k60, T = 650 C, P = 0.0 kbar, cell volume = 245.33 ang**3
American Mineralogist, 2004, 89, 204-210
9003206 CIFCl K0.6 Na0.4F m -3 m6.26; 6.26; 6.26
90; 90; 90
245.314Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als7k60, T = 650 C, P = 0.0 kbar, cell volume = 245.31 ang**3
American Mineralogist, 2004, 89, 204-210
9003207 CIFCl K0.6 Na0.4F m -3 m6.2595; 6.2595; 6.2595
90; 90; 90
245.256Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als8k60, T = 650 C, P = 0.0 kbar, cell volume = 245.25 ang**3
American Mineralogist, 2004, 89, 204-210
9003208 CIFCl K0.6 Na0.4F m -3 m6.2626; 6.2626; 6.2626
90; 90; 90
245.62Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als10k60, T = 650 C, P = 0.0 kbar, cell volume = 245.62 ang**3
American Mineralogist, 2004, 89, 204-210
9003209 CIFCl K0.6 Na0.4F m -3 m6.0717; 6.0717; 6.0717
90; 90; 90
223.837Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54867, T = 650 C, P = 12.4 kbar, cell volume = 223.84 ang**3
American Mineralogist, 2004, 89, 204-210
9003210 CIFCl K0.6 Na0.4F m -3 m6.0427; 6.0427; 6.0427
90; 90; 90
220.644Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r52085, T = 650 C, P = 15.1 kbar, cell volume = 220.64 ang**3
American Mineralogist, 2004, 89, 204-210
9003211 CIFCl K0.6 Na0.4F m -3 m6.0042; 6.0042; 6.0042
90; 90; 90
216.454Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54835, T = 650 C, P = 19.6 kbar, cell volume = 216.45 ang**3
American Mineralogist, 2004, 89, 204-210
9003212 CIFCl K0.6 Na0.4F m -3 m6.0062; 6.0062; 6.0062
90; 90; 90
216.67Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54783, T = 650 C, P = 19.6 kbar, cell volume = 216.67 ang**3
American Mineralogist, 2004, 89, 204-210
9003213 CIFCl K0.6 Na0.4F m -3 m6.0873; 6.0873; 6.0873
90; 90; 90
225.566Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54871, T = 700 C, P = 12.4 kbar, cell volume = 225.57 ang**3
American Mineralogist, 2004, 89, 204-210
9003214 CIFCl K0.6 Na0.4F m -3 m6.0574; 6.0574; 6.0574
90; 90; 90
222.259Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r52097, T = 700 C, P = 15.3 kbar, cell volume = 222.26 ang**3
American Mineralogist, 2004, 89, 204-210
9003215 CIFCl K0.6 Na0.4F m -3 m6.0134; 6.0134; 6.0134
90; 90; 90
217.45Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r54787, T = 700 C, P = 19.7 kbar, cell volume = 217.45 ang**3
American Mineralogist, 2004, 89, 204-210
9003178 CIFCl K0.7 Na0.3F m -3 m6.1161; 6.1161; 6.1161
90; 90; 90
228.783Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: b&w, T = 25 C, P = 0.0 kbar, cell volume = 228.78 ang**3
American Mineralogist, 2004, 89, 204-210
9003179 CIFCl K0.7 Na0.3F m -3 m6.2559; 6.2559; 6.2559
90; 90; 90
244.833Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als4k70, T = 500 C, P = 0.0 kbar, cell volume = 244.83 ang**3
American Mineralogist, 2004, 89, 204-210
9003180 CIFCl K0.7 Na0.3F m -3 m6.2763; 6.2763; 6.2763
90; 90; 90
247.236Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als3k70, T = 550 C, P = 0.0 kbar, cell volume = 247.23 ang**3
American Mineralogist, 2004, 89, 204-210
9003181 CIFCl K0.7 Na0.3F m -3 m6.2962; 6.2962; 6.2962
90; 90; 90
249.595Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als2k70, T = 600 C, P = 0.0 kbar, cell volume = 249.59 ang**3
American Mineralogist, 2004, 89, 204-210
9003182 CIFCl K0.7 Na0.3F m -3 m6.3194; 6.3194; 6.3194
90; 90; 90
252.364Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als1k70, T = 650 C, P = 0.0 kbar, cell volume = 252.36 ang**3
American Mineralogist, 2004, 89, 204-210
9003144 CIFCl K0.8 Na0.2F m -3 m6.1839; 6.1839; 6.1839
90; 90; 90
236.476Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: b&w, T = 23 C, P = 0.0 kbar, cell volume = 236.48 ang**3
American Mineralogist, 2004, 89, 204-210
9003145 CIFCl K0.8 Na0.2F m -3 m6.2517; 6.2517; 6.2517
90; 90; 90
244.34Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als11k80, T = 300 C, P = 0.0 kbar, cell volume = 244.34 ang**3
American Mineralogist, 2004, 89, 204-210
9003146 CIFCl K0.8 Na0.2F m -3 m6.21; 6.21; 6.21
90; 90; 90
239.483Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55633, T = 300 C, P = 3.6 kbar, cell volume = 239.48 ang**3
American Mineralogist, 2004, 89, 204-210
9003147 CIFCl K0.8 Na0.2F m -3 m6.2644; 6.2644; 6.2644
90; 90; 90
245.832Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als10k80, T = 350 C, P = 0.0 kbar, cell volume = 245.83 ang**3
American Mineralogist, 2004, 89, 204-210
9003148 CIFCl K0.8 Na0.2F m -3 m6.076; 6.076; 6.076
90; 90; 90
224.312Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55501, T = 350 C, P = 17.2 kbar, cell volume = 224.31 ang**3
American Mineralogist, 2004, 89, 204-210
9003149 CIFCl K0.8 Na0.2F m -3 m6.278; 6.278; 6.278
90; 90; 90
247.437Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als9k80, T = 400 C, P = 0.0 kbar, cell volume = 247.44 ang**3
American Mineralogist, 2004, 89, 204-210
9003150 CIFCl K0.8 Na0.2F m -3 m6.2169; 6.2169; 6.2169
90; 90; 90
240.282Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55629, T = 400 C, P = 5.2 kbar, cell volume = 240.28 ang**3
American Mineralogist, 2004, 89, 204-210
9003151 CIFCl K0.8 Na0.2F m -3 m6.0757; 6.0757; 6.0757
90; 90; 90
224.279Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55493, T = 450 C, P = 19.0 kbar, cell volume = 224.28 ang**3
American Mineralogist, 2004, 89, 204-210
9003152 CIFCl K0.8 Na0.2F m -3 m6.1674; 6.1674; 6.1674
90; 90; 90
234.588Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53261, T = 475 C, P = 12.1 kbar, cell volume = 234.59 ang**3
American Mineralogist, 2004, 89, 204-210
9003153 CIFCl K0.8 Na0.2F m -3 m6.3108; 6.3108; 6.3108
90; 90; 90
251.335Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als7k80, T = 500 C, P = 0.0 kbar, cell volume = 251.33 ang**3
American Mineralogist, 2004, 89, 204-210
9003154 CIFCl K0.8 Na0.2F m -3 m6.2263; 6.2263; 6.2263
90; 90; 90
241.374Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55617, T = 500 C, P = 7.0 kbar, cell volume = 241.37 ang**3
American Mineralogist, 2004, 89, 204-210
9003155 CIFCl K0.8 Na0.2F m -3 m6.1884; 6.1884; 6.1884
90; 90; 90
236.993Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55577, T = 500 C, P = 9.6 kbar, cell volume = 236.99 ang**3
American Mineralogist, 2004, 89, 204-210
9003156 CIFCl K0.8 Na0.2F m -3 m6.1696; 6.1696; 6.1696
90; 90; 90
234.839Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53253, T = 500 C, P = 12.3 kbar, cell volume = 234.84 ang**3
American Mineralogist, 2004, 89, 204-210
9003157 CIFCl K0.8 Na0.2F m -3 m6.1321; 6.1321; 6.1321
90; 90; 90
230.583Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55377, T = 500 C, P = 15.0 kbar, cell volume = 230.58 ang**3
American Mineralogist, 2004, 89, 204-210
9003158 CIFCl K0.8 Na0.2F m -3 m6.1188; 6.1188; 6.1188
90; 90; 90
229.086Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53197, T = 500 C, P = 18.0 kbar, cell volume = 229.09 ang**3
American Mineralogist, 2004, 89, 204-210
9003159 CIFCl K0.8 Na0.2F m -3 m6.3272; 6.3272; 6.3272
90; 90; 90
253.3Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als6k80, T = 550 C, P = 0.0 kbar, cell volume = 253.30 ang**3
American Mineralogist, 2004, 89, 204-210
9003160 CIFCl K0.8 Na0.2F m -3 m6.1999; 6.1999; 6.1999
90; 90; 90
238.316Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55589, T = 550 C, P = 10.1 kbar, cell volume = 238.32 ang**3
American Mineralogist, 2004, 89, 204-210
9003161 CIFCl K0.8 Na0.2F m -3 m6.1709; 6.1709; 6.1709
90; 90; 90
234.988Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53249, T = 550 C, P = 13.3 kbar, cell volume = 234.99 ang**3
American Mineralogist, 2004, 89, 204-210
9003162 CIFCl K0.8 Na0.2F m -3 m6.1348; 6.1348; 6.1348
90; 90; 90
230.888Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55373, T = 550 C, P = 16.0 kbar, cell volume = 230.89 ang**3
American Mineralogist, 2004, 89, 204-210
9003163 CIFCl K0.8 Na0.2F m -3 m6.1224; 6.1224; 6.1224
90; 90; 90
229.491Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53201, T = 550 C, P = 18.1 kbar, cell volume = 229.49 ang**3
American Mineralogist, 2004, 89, 204-210
9003164 CIFCl K0.8 Na0.2F m -3 m6.3484; 6.3484; 6.3484
90; 90; 90
255.854Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als5k80, T = 600 C, P = 0.0 kbar, cell volume = 255.85 ang**3
American Mineralogist, 2004, 89, 204-210
9003165 CIFCl K0.8 Na0.2F m -3 m6.2049; 6.2049; 6.2049
90; 90; 90
238.894Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55593, T = 600 C, P = 7.5 kbar, cell volume = 238.89 ang**3
American Mineralogist, 2004, 89, 204-210
9003166 CIFCl K0.8 Na0.2F m -3 m6.2268; 6.2268; 6.2268
90; 90; 90
241.432Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55613, T = 600 C, P = 7.5 kbar, cell volume = 241.43 ang**3
American Mineralogist, 2004, 89, 204-210
9003167 CIFCl K0.8 Na0.2F m -3 m6.1756; 6.1756; 6.1756
90; 90; 90
235.525Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53237, T = 600 C, P = 14.0 kbar, cell volume = 235.53 ang**3
American Mineralogist, 2004, 89, 204-210
9003168 CIFCl K0.8 Na0.2F m -3 m6.1371; 6.1371; 6.1371
90; 90; 90
231.148Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55369, T = 600 C, P = 17.0 kbar, cell volume = 231.15 ang**3
American Mineralogist, 2004, 89, 204-210
9003169 CIFCl K0.8 Na0.2F m -3 m6.13; 6.13; 6.13
90; 90; 90
230.346Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53205, T = 600 C, P = 18.1 kbar, cell volume = 230.35 ang**3
American Mineralogist, 2004, 89, 204-210
9003170 CIFCl K0.8 Na0.2F m -3 m6.3651; 6.3651; 6.3651
90; 90; 90
257.879Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als3k80, T = 650 C, P = 0.0 kbar, cell volume = 257.88 ang**3
American Mineralogist, 2004, 89, 204-210
9003171 CIFCl K0.8 Na0.2F m -3 m6.3714; 6.3714; 6.3714
90; 90; 90
258.645Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als4k80, T = 650 C, P = 0.0 kbar, cell volume = 258.64 ang**3
American Mineralogist, 2004, 89, 204-210
9003172 CIFCl K0.8 Na0.2F m -3 m6.217; 6.217; 6.217
90; 90; 90
240.294Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55597, T = 650 C, P = 7.7 kbar, cell volume = 240.29 ang**3
American Mineralogist, 2004, 89, 204-210
9003173 CIFCl K0.8 Na0.2F m -3 m6.1804; 6.1804; 6.1804
90; 90; 90
236.075Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53233, T = 650 C, P = 14.6 kbar, cell volume = 236.07 ang**3
American Mineralogist, 2004, 89, 204-210
9003174 CIFCl K0.8 Na0.2F m -3 m6.1441; 6.1441; 6.1441
90; 90; 90
231.94Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53217, T = 650 C, P = 18.6 kbar, cell volume = 231.94 ang**3
American Mineralogist, 2004, 89, 204-210
9003175 CIFCl K0.8 Na0.2F m -3 m6.2264; 6.2264; 6.2264
90; 90; 90
241.385Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55601, T = 700 C, P = 8.0 kbar, cell volume = 241.39 ang**3
American Mineralogist, 2004, 89, 204-210
9003176 CIFCl K0.8 Na0.2F m -3 m6.1781; 6.1781; 6.1781
90; 90; 90
235.811Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r53221, T = 700 C, P = 15.6 kbar, cell volume = 235.81 ang**3
American Mineralogist, 2004, 89, 204-210
9003177 CIFCl K0.8 Na0.2F m -3 m6.1421; 6.1421; 6.1421
90; 90; 90
231.713Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: r55365, T = 700 C, P = 19.0 kbar, cell volume = 231.71 ang**3
American Mineralogist, 2004, 89, 204-210
9003141 CIFCl K0.9 Na0.1F m -3 m6.2347; 6.2347; 6.2347
90; 90; 90
242.352Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: b&w, T = 25 C, P = 0.0 kbar, cell volume = 242.35 ang**3
American Mineralogist, 2004, 89, 204-210
9003142 CIFCl K0.9 Na0.1F m -3 m6.3654; 6.3654; 6.3654
90; 90; 90
257.915Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als3k90, T = 500 C, P = 0.0 kbar, cell volume = 257.91 ang**3
American Mineralogist, 2004, 89, 204-210
9003143 CIFCl K0.9 Na0.1F m -3 m6.4028; 6.4028; 6.4028
90; 90; 90
262.488Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: als2k90, T = 600 C, P = 0.0 kbar, cell volume = 262.49 ang**3
American Mineralogist, 2004, 89, 204-210
9003308 CIFCl NaF m -3 m5.6401; 5.6401; 5.6401
90; 90; 90
179.416Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416031, T = 25 C, P = 0.0 kbar, cell volume = 179.42 ang**3
American Mineralogist, 2004, 89, 204-210
9003309 CIFCl NaF m -3 m5.653; 5.653; 5.653
90; 90; 90
180.65Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416032, T = 100 C, P = 0.0 kbar, cell volume = 180.65 ang**3
American Mineralogist, 2004, 89, 204-210
9003310 CIFCl NaF m -3 m5.685; 5.685; 5.685
90; 90; 90
183.735Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416033, T = 200 C, P = 0.0 kbar, cell volume = 183.73 ang**3
American Mineralogist, 2004, 89, 204-210
9003311 CIFCl NaF m -3 m5.7071; 5.7071; 5.7071
90; 90; 90
185.886Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416034, T = 300 C, P = 0.0 kbar, cell volume = 185.89 ang**3
American Mineralogist, 2004, 89, 204-210
9003312 CIFCl NaF m -3 m5.732; 5.732; 5.732
90; 90; 90
188.33Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416035, T = 400 C, P = 0.0 kbar, cell volume = 188.33 ang**3
American Mineralogist, 2004, 89, 204-210
9003313 CIFCl NaF m -3 m5.7632; 5.7632; 5.7632
90; 90; 90
191.422Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416036, T = 500 C, P = 0.0 kbar, cell volume = 191.42 ang**3
American Mineralogist, 2004, 89, 204-210
9003314 CIFCl NaF m -3 m5.7915; 5.7915; 5.7915
90; 90; 90
194.255Walker, D.; Verma, P. K.; Cranswick, L. M. D.; Jones, R. L.; Clark, S. M.; Buhre, S.
Halite-sylvite thermoelasticity Sample: msl416037, T = 600 C, P = 0.0 kbar, cell volume = 194.26 ang**3
American Mineralogist, 2004, 89, 204-210
9003394 CIFCr Na O6 Si2C 1 2/c 19.653; 8.944; 5.164
90; 109.6; 90
420.008Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model kosmochlor after Cameron et al. (1973) with O3-O3-O3 angle = 172.0 and model oxygen radius = 1.294
American Mineralogist, 2004, 89, 614-628
9003395 CIFCr Na O6 Si2C 1 2/c 19.697; 8.98; 5.184
90; 109.7; 90
424.997Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model kosmochlor at 600C after Cameron et al. (1973) with O3-O3-O3 angle = 172.9 and model oxygen radius = 1.299
American Mineralogist, 2004, 89, 614-628
9003396 CIFCr Na O6 Si2C 1 2/c 19.65; 8.937; 5.16
90; 109.7; 90
418.963Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model kosmochlor after Origlieri et al. (2003) with O3-O3-O3 angle = 172.8 and model oxygen radius = 1.292
American Mineralogist, 2004, 89, 614-628
9003397 CIFCr Na O6 Si2C 1 2/c 19.401; 8.738; 5.045
90; 108.7; 90
392.549Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model kosmochlor at 9.28 GPa after Origlieri et al. (2003) with O3-O3-O3 angle = 166.1 and model oxygen radius = 1.271
American Mineralogist, 2004, 89, 614-628
9003333 CIFDy6 O21 Si6P -16.5971; 6.6504; 18.0582
83.791; 88.653; 88.498
787.185Fleet, M. E.; Liu, X.
A new rare earth disilicate (REE2Si2O7: REE = Dy, Tm, Lu; type-L): Evidence for nonquenchable 10 GPa polymorph with silicon in fivefold trigonal bipyramidal coordination?
American Mineralogist, 2004, 89, 396-404
9003402 CIFFe Li O6 Si2C 1 2/c 19.695; 8.919; 5.149
90; 110.9; 90
415.938Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model lithium iron px after Redhammer et al. (2001) with O3-O3-O3 angle = 180.8 and model oxygen radius = 1.287
American Mineralogist, 2004, 89, 614-628
9003408 CIFFe Na O6 Si2C 1 2/c 19.737; 9.009; 5.201
90; 109.9; 90
428.992Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model acmite after Cameron et al. (1973) with O3-O3-O3 angle = 174.0 and model oxygen radius = 1.302
American Mineralogist, 2004, 89, 614-628
9003393 CIFFe O3 SiC 1 2/c 19.552; 8.844; 5.106
90; 103.8; 90
418.893Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model ferrosilite at 1.87 GPa after Hugh-Jones et al. (1995) with O3-O3-O3 angle = 138.3 and model oxygen radius = 1.366
American Mineralogist, 2004, 89, 614-628
9003332 CIFFe4 H16 O26 S4P -17.3484; 9.771; 7.1521
91.684; 98.523; 86.39
506.746Scordari, F.; Ventruti, G.; Gualtieri, A. F.
The structure of metahohmannite, Fe2[O(SO4)2].4H2O, by in situ synchrotron powder diffraction
American Mineralogist, 2004, 89, 365-370
9003403 CIFGa Li O6 Si2C 1 2/c 19.601; 8.839; 5.103
90; 110.7; 90
405.101Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model lilthium gallium px after Sato et al. (1994) with O3-O3-O3 angle = 179.9 and model oxygen radius = 1.276
American Mineralogist, 2004, 89, 614-628
9003412 CIFGa Na O6 Si2C 1 2/c 19.64; 8.928; 5.155
90; 109.7; 90
417.702Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium gallium px after Ohashi et al. (1995) with O3-O3-O3 angle = 172.7 and model oxygen radius = 1.291
American Mineralogist, 2004, 89, 614-628
9003507 CIFH2 Mg2 Na0.193 O6 Si1.333C 15.358; 9.281; 14.574
90; 97.08; 90
719.204Krivovichev, S. V.; Armbruster, T.; Organova, N. I.; Burns, P. C.; Seredkin, M. V.; Chukanov, N. V.
Incorporation of sodium into the chlorite structure: the crystal structure of glagolevite, Na(Mg,Al)6[Si3AlO10](OH,O)8
American Mineralogist, 2004, 89, 1138-1141
9003443 CIFH2 Mg6 Na2 O24 Si8P 1 21/m 19.689; 17.938; 5.268
90; 102.5; 90
893.882Iezzi, G.; Della Ventura, G.; Oberti, R.; Camara, F.; Holtz, F.
Synthesis and crystal-chemistry of Na(NaMg)Mg5Si8O22(OH)2, a P2_1/m amphibole
American Mineralogist, 2004, 89, 640-646
9003556 CIFH3 Mg5 Na3 O24 Si8C -19.883; 54.082; 5.277
90.045; 103.068; 89.96
2747.47Camara, F.; Oberti, R.; Della Ventura, G.; Welch, M. D.; Maresch, W. V.
The crystal structure of synthetic NaNa2Mg5Si8O21(OH)3, a triclinic C-1 amphibole with a triple-cell and H excess Note: occupancies unreported, so calculated formula has an extra OH
American Mineralogist, 2004, 89, 1464-1473
9003567 CIFH35.72 K5.7 Mn10.86 Na9 O87.72 Si26.72P 3 1 c14.519; 14.519; 21.062
90; 90; 120
3845.06Krivovichev, S. V.; Yakovenchuk, V. N.; Armbruster, T.; Pakhomovsky, Y. A.; Weber, H.-P.; Depmeier, W.
Synchrotron X-ray diffraction study of the structure of shafranovskite, K2Na3(Mn,Fe,Na)4[Si9(O,OH)27].nH2O, a rare manganese silicate from Kola peninsula, Russia
American Mineralogist, 2004, 89, 1816-1821
9003477 CIFH6.8 O18 Se2 Sr U3C 1 2/m 117.014; 7.0637; 7.1084
90; 100.544; 90
839.875Almond, P. M.; Albrecht-Schmitt T E
Hydrothermal synthesis and crystal chemistry of the new strontium uranyl selenites, Sr[(UO2)3(SeO3)2O2].4H2O and Sr[(UO2)(SeO3)2].2H2O
American Mineralogist, 2004, 89, 976-980
9003317 CIFH7.79 O25 Pb3 U6C 1 2/c 128.355; 11.99; 13.998
90; 104.248; 90
4612.6Brugger, J.; Krivovichev, S. V.; Berlepsch, P.; Meisser, N.; Ansermet, S.; Armbruster, T.
Spriggite, Pb3[(UO2)6O8(OH)2](H2O)3, a new mineral with beta-U3O8 - type sheets: Description and crystal structure
American Mineralogist, 2004, 89, 339-347
9003103 CIFH79 Mg48 O147 Si34P 1 m 143.505; 9.251; 7.263
90; 91.32; 90
2922.33Capitani, G.; Mellini, M.
The modulated crystal structure of antigorite: The m = 17 polysome
American Mineralogist, 2004, 89, 147-158
9003413 CIFIn Na O6 Si2C 1 2/c 19.967; 9.241; 5.335
90; 109.4; 90
463.481Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium indium px after Ohashi et al. (1990) with O3-O3-O3 angle = 171.0 and model oxygen radius = 1.338
American Mineralogist, 2004, 89, 614-628
9003405 CIFLi O6 Sc Si2C 1 2/c 19.838; 9.092; 5.249
90; 110.1; 90
440.912Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model lithium scandium px after Hawthorne and Grundy (1977) with O3-O3-O3 angle = 175.6 and model oxygen radius = 1.313
American Mineralogist, 2004, 89, 614-628
9003404 CIFLi O6 Si2 VC 1 2/c 19.648; 8.898; 5.137
90; 110.5; 90
413.073Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model lithium vanadium px after Satto et al. (1997) with O3-O3-O3 angle = 178.1 and model oxygen radius = 1.284
American Mineralogist, 2004, 89, 614-628
9003335 CIFLu5.745 O21 Si6P -16.524; 6.5553; 17.7909
83.977; 88.074; 87.846
755.788Fleet, M. E.; Liu, X.
A new rare earth disilicate (REE2Si2O7: REE = Dy, Tm, Lu; type-L): Evidence for nonquenchable 10 GPa polymorph with silicon in fivefold trigonal bipyramidal coordination?
American Mineralogist, 2004, 89, 396-404
9003382 CIFMg O3 SiC 1 2/c 17.394; 6; 3.464
90; 117.9; 90
135.814Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 240 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003383 CIFMg O3 SiC 1 2/c 17.565; 6.51; 3.759
90; 115.8; 90
166.67Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 220 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003384 CIFMg O3 SiC 1 2/c 17.608; 6.823; 3.939
90; 113.4; 90
187.654Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 200 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003385 CIFMg O3 SiC 1 2/c 17.526; 6.928; 4
90; 110.8; 90
194.968Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 180 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003386 CIFMg O3 SiC 1 2/c 17.326; 6.823; 3.939
90; 107.7; 90
187.572Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 160 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003387 CIFMg O3 SiC 1 2/c 17.023; 6.51; 3.759
90; 104.1; 90
166.683Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 140 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003388 CIFMg O3 SiC 1 2/c 16.6332; 6; 3.464
90; 100; 90
135.77Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model with O3-O3-O3 angle = 120 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003419 CIFMg O3 SiP 1 21/c 16.928; 6; 3.464
90; 109.47; 90
135.758Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model low clinopx, closest-packed, ABABCACABCBC, with O3A-O3A-O3A angle = 240, O3B-O3B-O3B angle = 120, and model oxygen radius = 1
American Mineralogist, 2004, 89, 614-628
9003420 CIFMg O3 SiP 1 21/c 17.559; 6.928; 4
90; 105.3; 90
202.051Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model low clinopx with O3A-O3A-O3A angle = 180, O3B-O3B-O3B angle = 120, and model oxygen radius = 1
American Mineralogist, 2004, 89, 614-628
9003421 CIFMg O3 SiP 1 21/c 19.725; 8.872; 5.122
90; 108.9; 90
418.101Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model low clinoenstatite after Pannhorst (1984) with O3A-O3A-O3A angle = 202.8, O3B-O3B-O3B angle = 138.1, and model oxygen radius = 1.306
American Mineralogist, 2004, 89, 614-628
9003422 CIFMg O3 SiP 1 21/c 19.764; 8.953; 5.169
90; 108.8; 90
427.752Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model low clinoenstatite at 700C after Pannhorst (1984) with O3A-O3A-O3A angle = 197.1, O3B-O3B-O3B angle = 141.6, and model oxygen radius = 1.307
American Mineralogist, 2004, 89, 614-628
9003425 CIFMg O3 SiP b c a14.58; 6.928; 4
90; 90; 90
404.041Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthopx with O3A-O3A-O3A angle = 180, O3B-O3B-O3B angle = 120, and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003426 CIFMg O3 SiP b c a14.074; 6.928; 4
90; 90; 90
390.019Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthopx with O3A-O3A-O3A angle = 180, O3B-O3B-O3B angle = 180, and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003427 CIFMg O3 SiP b c a18.363; 8.867; 5.119
90; 90; 90
833.5Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthoenstatite after Yang and Ghose (1995) with O3A-O3A-O3A angle = 158.9, O3B-O3B-O3B angle = 139.3, and model oxygen radius = 1.302
American Mineralogist, 2004, 89, 614-628
9003428 CIFMg O3 SiP b c a18.535; 9.024; 5.21
90; 90; 90
871.424Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthoenstatite at 1360 K after Yang and Ghose (1995) with O3A-O3A-O3A angle = 163.0, O3B-O3B-O3B angle = 149.5, and model oxygen radius = 1.317
American Mineralogist, 2004, 89, 614-628
9003429 CIFMg O3 SiP b c a18.363; 8.864; 5.118
90; 90; 90
833.055Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthoenstatite after Hugh-Jones and Angel (1994) with O3A-O3A-O3A angle = 158.7, O3B-O3B-O3B angle = 139.0, and model oxygen radius = 1.302
American Mineralogist, 2004, 89, 614-628
9003430 CIFMg O3 SiP b c a18.027; 8.683; 5.013
90; 90; 90
784.677Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model orthoenstatite at 8.10 GPa after Hugh-Jones and Angel (1994) with O3A-O3A-O3A angle = 158.5, O3B-O3B-O3B angle = 136.4, and model oxygen radius = 1.276
American Mineralogist, 2004, 89, 614-628
9003431 CIFMg O3 SiP b c n7.037; 6.928; 4
90; 90; 90
195.009Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model protopyroxene with O3-O3-O3 angle = 180 and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003432 CIFMg O3 SiP b c n9.268; 9.102; 5.255
90; 90; 90
443.298Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model protoenstatite at 1360 K after Yang and Ghose (1995) with O3-O3-O3 angle = 168.4 and model oxygen radius = 1.321 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003433 CIFMg O3 SiP b c n9.199; 9.026; 5.211
90; 90; 90
432.67Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model protopyroxene after Yang et al. (1999) with O3-O3-O3 angle = 166.2 and model oxygen radius = 1.312 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003434 CIFMg O3 SiP b c n9.154; 8.981; 5.185
90; 90; 90
426.27Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model protopyroxene after Yang et al. (1999) with O3-O3-O3 angle = 165.9 and model oxygen radius = 1.306 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003435 CIFMg O3 SiP 21 c n6.532; 6; 3.464
90; 90; 90
135.761Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model hi-P protopx with O3A-O3A-O3A angle = 120, O3B-O3B-O3B angle = 240, and model oxygen radius = 1 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003436 CIFMg O3 SiP 21 c n9.127; 8.877; 5.125
90; 90; 90
415.229Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model hi-P protopx at 2.50 GPa after Yang et al. (1999) with O3A-O3A-O3A angle = 154.0, O3B-O3B-O3B angle = 212.1, and model oxygen radius = 1.315 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003437 CIFMg O3 SiP 21 c n9.002; 8.698; 5.022
90; 90; 90
393.22Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model hi-P protopx at 9.98 GPa after Yang et al. (1999) with O3A-O3A-O3A angle = 147.8, O3B-O3B-O3B angle = 220.8, and model oxygen radius = 1.307 Note: Atoms Mg, Si, and O are assigned to atomic positions for convenience
American Mineralogist, 2004, 89, 614-628
9003456 CIFMg O3 SiP b n m4.778; 4.9298; 6.899
90; 90; 90
162.503Dobson, D. P.; Jacobsen, S. D.
The flux growth of magnesium silicate perovskite single crystals
American Mineralogist, 2004, 89, 807-811
9003407 CIFMn Na O6 Si2C 1 2/c 19.698; 8.973; 5.181
90; 109.9; 90
423.93Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium manganese px after Ohashi et al. (1987) with O3-O3-O3 angle = 174.1 and model oxygen radius = 1.297
American Mineralogist, 2004, 89, 614-628
9003475 CIFMn O2P n m a9.2734; 2.8638; 4.5219
90; 90; 90
120.089Post, J. E.; Heaney, P. J.
Neutron and synchrotron X-ray diffraction study of the structures and dehydration behaviors of ramsdellite and "groutellite"
American Mineralogist, 2004, 89, 969-975
9003476 CIFMn O2P n m a9.5155; 2.8644; 4.7061
90; 90; 90
128.27Post, J. E.; Heaney, P. J.
Neutron and synchrotron X-ray diffraction study of the structures and dehydration behaviors of ramsdellite and "groutellite"
American Mineralogist, 2004, 89, 969-975
9003410 CIFNa O6 Sc Si2C 1 2/c 19.929; 9.189; 5.305
90; 109.8; 90
455.401Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium scandium px after Ohashi et al. (1994A) with O3-O3-O3 angle = 173.7 and model oxygen radius = 1.328
American Mineralogist, 2004, 89, 614-628
9003409 CIFNa O6 Si2 TiC 1 2/c 19.791; 9.06; 5.231
90; 109.9; 90
436.316Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium titanium px after Ohashi et al. (1982) with O3-O3-O3 angle = 173.9 and model oxygen radius = 1.310
American Mineralogist, 2004, 89, 614-628
9003411 CIFNa O6 Si2 VC 1 2/c 19.712; 8.992; 5.192
90; 109.7; 90
426.881Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model sodium vanadium px with O3-O3-O3 angle = 173.0 and model oxygen radius = 1.300
American Mineralogist, 2004, 89, 614-628
9003334 CIFO21 Si6 Tm5.902P -16.5499; 6.5876; 17.8916
83.828; 88.368; 88.152
766.872Fleet, M. E.; Liu, X.
A new rare earth disilicate (REE2Si2O7: REE = Dy, Tm, Lu; type-L): Evidence for nonquenchable 10 GPa polymorph with silicon in fivefold trigonal bipyramidal coordination?
American Mineralogist, 2004, 89, 396-404
9003418 CIFO3 Si ZnC 1 2/c 19.755; 9.083; 5.244
90; 107.9; 90
442.152Thompson, R. M.; Downs, R. T.
Model pyroxenes II: Structural variation as a function of tetrahedral rotation model zinc px after Morimoto et al. (1975) with O3-O3-O3 angle = 161.3 and model oxygen radius = 1.329
American Mineralogist, 2004, 89, 614-628
9003478 CIFO8 Se2 Sr UP -15.6722; 6.7627; 11.2622
104.698; 93.708; 109.489
388.615Almond, P. M.; Albrecht-Schmitt T E
Hydrothermal synthesis and crystal chemistry of the new strontium uranyl selenites, Sr[(UO2)3(SeO3)2O2].4H2O and Sr[(UO2)(SeO3)2].2H2O
American Mineralogist, 2004, 89, 976-980
9003459 CIFS3 Sb2P n m a11.282; 3.8296; 11.225
90; 90; 90
484.982Kyono, A.; Kimata, M.
Structural variations induced by difference of the inert pair effect in the stibnite-bismuthinite solid solution series (Sb,Bi)2S3 Sample #1
American Mineralogist, 2004, 89, 932-940
9003460 CIFS3 Sb2P n m a11.311; 3.8389; 11.223
90; 90; 90
487.323Kyono, A.; Kimata, M.
Structural variations induced by difference of the inert pair effect in the stibnite-bismuthinite solid solution series (Sb,Bi)2S3 Sample #2
American Mineralogist, 2004, 89, 932-940
9003461 CIFS3 Sb2P n m a11.2845; 3.822; 11.203
90; 90; 90
483.178Kyono, A.; Kimata, M.
Structural variations induced by difference of the inert pair effect in the stibnite-bismuthinite solid solution series (Sb,Bi)2S3 Sample #3
American Mineralogist, 2004, 89, 932-940
9003462 CIFS3 Sb2P n m a11.3197; 3.8332; 11.233
90; 90; 90
487.407Kyono, A.; Kimata, M.
Structural variations induced by difference of the inert pair effect in the stibnite-bismuthinite solid solution series (Sb,Bi)2S3 Sample #4
American Mineralogist, 2004, 89, 932-940

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