Structures by: Diefenbach K.
Total: 59
Curium(III) 2,6-Pyridinedicarboxylic acid
Cm(C7H4NO4)31.15(H2O)
Nature Communications (2015) 6, 6827
a=11.8146(10)Å b=13.3852(12)Å c=15.1717(13)Å
α=90.9375(17)° β=95.3161(17)° γ=103.1110(17)°
Californium(III) 2,6-Pyridinedicarboxylic acid
Cf(C7H4NO4)3(H2O)
Nature Communications (2015) 6, 6827
a=11.7542(4)Å b=13.4315(5)Å c=15.1978(6)Å
α=91.1180(12)° β=95.9110(11)° γ=103.1070(12)°
Americium(III) 2,6-Pyridinedicarboxylic acid
AmC21H12N3O12,1.5(H2O)
Nature Communications (2015) 6, 6827
a=11.8381(9)Å b=13.3788(10)Å c=15.1601(11)Å
α=91.0206(12)° β=95.2167(12)° γ=103.1085(12)°
Neodymium iodate sulfate
Dy2H12I2O20S2
Dalton transactions (Cambridge, England : 2003) (2019) 48, 34 12808-12811
a=6.6821(17)Å b=8.791(2)Å c=13.632(3)Å
α=90° β=90° γ=90°
Europium iodate sulfate
EuIO7S
Dalton transactions (Cambridge, England : 2003) (2019) 48, 34 12808-12811
a=9.3083(3)Å b=6.8460(3)Å c=8.2575(3)Å
α=90° β=104.6960(10)° γ=90°
Cerium molybdate iodate
CeI4MoO15
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=6.9831(10)Å b=14.1056(19)Å c=7.0752(9)Å
α=90° β=115.325(4)° γ=90°
Praseodymium molybdate iodate
I4MoO15Pr
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=6.9871(12)Å b=14.114(2)Å c=7.0873(12)Å
α=90° β=115.065(4)° γ=90°
Terbium molybdate iodate
IMo2O12Tb
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5995(12)Å b=11.3847(18)Å c=11.3300(19)Å
α=90° β=92.142(4)° γ=90°
Dysprosium molybdate iodate
DyIMo2O12
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5804(4)Å b=11.3583(6)Å c=11.2975(6)Å
α=90° β=92.2852(17)° γ=90°
Ytterbium molybdate iodate
IMo2O12Yb
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5242(16)Å b=11.321(2)Å c=11.203(2)Å
α=90° β=92.308(7)° γ=90°
Holmium molybdate iodate
HoIMo2O12
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5554(4)Å b=11.3436(6)Å c=11.2689(6)Å
α=90° β=92.2717(15)° γ=90°
Thorium molybdate iodate
FIMoO7Th
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.261(3)Å b=8.769(4)Å c=21.820(8)Å
α=90° β=90° γ=90°
Gadolinium molybdate iodate
GdIMo2O12'
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.6068(10)Å b=11.3865(15)Å c=11.3561(15)Å
α=90° β=92.129(3)° γ=90°
Yttrium molybdate iodate
IMo2O12Y
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5639(6)Å b=11.3372(9)Å c=11.2573(10)Å
α=90° β=92.219(2)° γ=90°
Erbium molybdate iodate
ErIMo2O12
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5508(4)Å b=11.3352(6)Å c=11.2366(6)Å
α=90° β=92.3336(16)° γ=90°
Thulium molybdate iodate
IMo2O12Tm
Dalton transactions (Cambridge, England : 2003) (2019) 48, 15 4823-4829
a=7.5360(6)Å b=11.3220(9)Å c=11.1946(9)Å
α=90° β=92.284(2)° γ=90°
Yttrium copper tellurite sulfate
Y2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1645(4)Å b=7.8154(6)Å c=8.1013(6)Å
α=62.654(2)° β=73.880(2)° γ=85.266(2)°
Neodymium copper tellurite sulfate
Nd2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.2397(5)Å b=8.0080(8)Å c=8.3010(8)Å
α=62.2680(10)° β=74.0220(10)° γ=85.4990(10)°
Europium copper tellurite sulfate
Eu2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.2216(9)Å b=7.9072(14)Å c=8.1991(15)Å
α=62.690(2)° β=73.811(2)° γ=85.453(2)°
Gadolinium copper tellurite sulfate
Gd2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1886(7)Å b=7.8776(11)Å c=8.1516(11)Å
α=62.3440(10)° β=74.0310(10)° γ=85.3190(10)°
Terbium copper tellurite sulfate
Tb2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1939(9)Å b=7.8689(13)Å c=8.1664(14)Å
α=62.602(2)° β=73.928(2)° γ=85.340(2)°
Dysprosium copper tellurite sulfate
Dy2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1706(10)Å b=7.8301(15)Å c=8.1176(16)Å
α=62.479(2)° β=73.957(2)° γ=85.171(2)°
Holmium copper tellurite sulfate
Ho2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.179(4)Å b=7.814(6)Å c=8.108(6)Å
α=62.793(6)° β=73.836(7)° γ=85.241(7)°
Erbium copper tellurite sulfate
Er2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1661(7)Å b=7.8092(10)Å c=8.0902(10)Å
α=62.5670(10)° β=73.8730(10)° γ=85.1340(10)°
Thulium copper tellurite sulfate
Eu2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.1529(7)Å b=7.7976(11)Å c=8.0821(12)Å
α=62.6280(10)° β=73.8480(10)° γ=85.0590(10)°
Ytterbium copper tellurite sulfate
Yb2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.3283(15)Å b=8.041(2)Å c=8.113(2)Å
α=114.570(2)° β=106.545(2)° γ=96.272(3)°
Lutetium copper tellurite sulfate
Lu2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.3269(7)Å b=8.0617(10)Å c=8.1236(10)Å
α=114.4340(10)° β=106.4700(10)° γ=96.4860(10)°
Holmium copper tellurite sulfate
Ho2Cu(TeO3)2(SO4)2
Inorganic Chemistry (2013) 52, 13278-13281
a=5.179(4)Å b=7.814(6)Å c=8.108(6)Å
α=62.793(6)° β=73.836(7)° γ=85.241(7)°
Holmium copper tellurite sulfate
Ho2Cu(TeO3)2(SO4)2
Inorganic Chemistry (2013) 52, 13278-13281
a=5.1602(16)Å b=7.799(2)Å c=8.095(3)Å
α=62.604(2)° β=73.937(3)° γ=85.210(3)°
P8Rb6S32Sb2U3
P8Rb6S32Sb2U3
Inorganic chemistry (2014) 53, 7 3540
a=14.9059(10)Å b=14.9059(10)Å c=44.895(3)Å
α=90.00° β=90.00° γ=120.00°
Cs6P8S32Sb2U3
Cs6P8S32Sb2U3
Inorganic chemistry (2014) 53, 7 3540
a=14.9846(13)Å b=14.9846(13)Å c=46.139(4)Å
α=90.00° β=90.00° γ=120.00°
Samarium copper tellurite sulfate
Sm2Cu(TeO3)2(SO4)2
Chemistry of Materials (2014) 26, 6 2187
a=5.2140(6)Å b=7.9348(9)Å c=8.2384(9)Å
α=62.4110(10)° β=73.9820(10)° γ=85.4220(10)°
Gadolinium tellurium vanadate
GdTe3V3O15(OH)3(H2O)
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.0745(13)Å b=12.0745(13)Å c=12.3701(14)Å
α=90° β=90° γ=120°
Neptunium selenite
Np(SeO3)2
Inorganic chemistry (2014) 53, 14 7154-7159
a=7.0089(5)Å b=10.5827(8)Å c=7.3316(5)Å
α=90.00° β=106.9530(10)° γ=90.00°
Neptunium selenite
NpO2(SeO3)
Inorganic chemistry (2014) 53, 14 7154-7159
a=4.2501(3)Å b=9.2223(7)Å c=5.3840(4)Å
α=90.00° β=90.043(2)° γ=90.00°
Cerium tellurium vanadate
CeTe3V3O15(OH)3(H2O)2
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.166(5)Å b=12.166(5)Å c=12.537(5)Å
α=90° β=90° γ=120°
Praseodymium tellurium vanadate
PrTe3V3O15(OH)3(H2O)2
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.1147(9)Å b=12.1147(9)Å c=12.4949(9)Å
α=90° β=90° γ=120°
Neodymium tellurium vanadate
NdTe3V3O15(OH)3(H2O)
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.1075(14)Å b=12.1075(14)Å c=12.4572(15)Å
α=90° β=90° γ=120°
Samarium tellurium vanadate
SmTe3V3O15(OH)3(H2O)
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.1068(6)Å b=12.1068(6)Å c=12.4509(6)Å
α=90° β=90° γ=120°
Europium tellurium vanadate
EuTe3V3O15(OH)3(H2O)
Inorganic chemistry (2014) 53, 17 9058-9064
a=12.0731(9)Å b=12.0731(9)Å c=12.3674(10)Å
α=90° β=90° γ=120°
Lanthanum tellurite sulfate
Ce2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.6300(19)Å b=6.9840(14)Å c=8.2879(16)Å
α=90.00° β=106.317(2)° γ=90.00°
Cerium tellurite sulfate
Ce2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.597(3)Å b=6.9391(18)Å c=8.248(2)Å
α=90.00° β=106.452(3)° γ=90.00°
Samarium tellurite sulfate
Sm2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.5721(7)Å b=6.8269(5)Å c=8.0964(6)Å
α=90.00° β=106.9840(10)° γ=90.00°
Neodymium tellurite sulfate
La2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.5838(5)Å b=6.8832(4)Å c=8.1783(5)Å
α=90.00° β=106.7580(10)° γ=90.00°
Praseodymium tellurite sulfate
Pr2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.575(5)Å b=6.934(4)Å c=8.212(4)Å
α=90.00° β=106.640(5)° γ=90.00°
Europium tellurite sulfate
Eu2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.5815(18)Å b=6.8132(13)Å c=8.0687(15)Å
α=90.00° β=107.113(2)° γ=90.00°
Gadolinium tellurite sulfate
Gd2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.5855(9)Å b=6.7774(6)Å c=7.9941(8)Å
α=90.00° β=107.688(2)° γ=90.00°
Terbium tellurite sulfate
La2Te2S2O13
Inorganic chemistry (2014) 53, 16 8555-8564
a=9.6120(5)Å b=6.7491(4)Å c=7.9564(4)Å
α=90.00° β=107.9340(10)° γ=90.00°
Holmium tellurite sulfate
Ho3(TeO3)2(SO4)2(OH)(H2O)
Inorganic chemistry (2014) 53, 16 8555-8564
a=5.4548(4)Å b=15.3443(10)Å c=8.0291(5)Å
α=90.00° β=99.4920(10)° γ=90.00°
Holmium tellurite sulfate
Ho2TeO3(SO4)2(H2O)2
Inorganic chemistry (2014) 53, 16 8555-8564
a=5.3462(7)Å b=8.2012(11)Å c=12.3034(17)Å
α=90.7190(10)° β=101.505(2)° γ=103.809(2)°
Erbium tellurite sulfate
Er2(Te2O5)(SO4)2
Inorganic chemistry (2014) 53, 16 8555-8564
a=5.3243(11)Å b=8.2705(17)Å c=13.220(3)Å
α=89.007(2)° β=87.485(2)° γ=72.328(2)°
Thulium tellurite sulfate
Ln2(Te2O5)(SO4)2
Inorganic chemistry (2014) 53, 16 8555-8564
a=5.2912(4)Å b=8.2255(6)Å c=13.1589(9)Å
α=89.005(2)° β=87.6410(10)° γ=72.3330(10)°
Lutetium tellurite sulfate
Lu2(Te2O5)(SO4)2
Inorganic chemistry (2014) 53, 16 8555-8564
a=5.289(3)Å b=8.193(5)Å c=13.144(8)Å
α=89.033(6)° β=87.531(6)° γ=72.455(6)°
Gadolinium tellurite sulfate
Gd2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.8584(8)Å b=9.3454(11)Å c=9.9200(12)Å
α=89.744(2)° β=72.406(2)° γ=87.498(2)°
Holmium tellurite sulfate
Ho2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.8115(3)Å b=9.3149(5)Å c=9.8627(5)Å
α=89.8870(10)° β=72.4970(10)° γ=88.1390(10)°
Dysprosium tellurite sulfate
Dy2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.8248(5)Å b=9.3245(6)Å c=9.8785(7)Å
α=89.8550(10)° β=72.4430(10)° γ=87.9530(10)°
Thulium tellurite sulfate
Tm2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.7692(6)Å b=9.2956(8)Å c=9.8114(8)Å
α=89.932(2)° β=72.4980(10)° γ=88.385(2)°
Erbium tellurite sulfate
Er2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.7819(17)Å b=9.259(2)Å c=9.838(3)Å
α=89.901(5)° β=72.535(4)° γ=88.596(5)°
Ytterbium tellurite sulfate
Yb2(Te4O10)(SO4)
Inorganic chemistry (2014) 53, 16 8555-8564
a=6.7434(5)Å b=9.2433(7)Å c=9.7798(8)Å
α=89.937(2)° β=72.493(2)° γ=88.825(2)°