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1                                              Bi stabilizes the Ti-polyhedra, which are synergisticall
2                                              Bi(0).(5)Na(0).(5)TiO(3)-based solid solution is among t
3                                              Bi- and multivariable logistic regression, Kaplan-Meier
4                                              Bi- and tri-exponential models for ultrasensitive assay
5                                              Bi- and trilayer graphene have attracted intensive inter
6                                              Bi-allelic mutations in ARSs typically cause severe, ear
7                                              Bi-frontal anodal stimulation significantly decreased TS
8                                              Bi-frontal cathodal stimulation did not significantly in
9                                              Bi-institutional (Mbarara Regional Referral Hospital and
10                                              Bi-level positive airway pressure or adaptive servo-vent
11                                              Bi-molecular fluorescence complementation and co-immunop
12                                              Bi-phase was constructed from ionic liquid: butyl-methyl
13                                              Bi-phasic or diauxic growth is often observed when micro
14                                         1,1'-Bi-2-naphthol in combination with ZnEt2, Ti(O(i)Pr)4, an
15 ) is worse than with the QTA (0.16 ng mL(-1) Bi).
16 ve field in the six quintuple-layer (Cr(0.12)Bi(0.26)Sb(0.62))2Te3 film, and demonstrate the metal-to
17 esentative ferroelectrics, BaTiO3 and Na(1/2)Bi(1/2)TiO3, and dielectric SrTiO3.
18                                   For Na(1/2)Bi(1/2)TiO3, the results reveal an abrupt field-induced
19 nexpensive triflate salts of Sn(2+), Pb(2+), Bi(3+), and Sb(3+) can be used as precursors for the ele
20 eavy ions such as hydrogen-like bismuth (209)Bi(82+) experience electromagnetic fields that are a mil
21  hydrogen-like and lithium-like bismuth (209)Bi(82+,80+) with a precision that is improved by more th
22 )Sc, (166)Ho, (161)Tb, (149)Tb, (212)Pb/(212)Bi, (225)Ac, and (213)Bi-have been produced and evaluate
23                                         (213)Bi-IMP288 cleared rapidly from the circulation; at 30 mi
24 g.(47)Sc, (114m)In, (177)Lu, (90)Y, (212/213)Bi, (212)Pb, (225)Ac, (186/188)Re).
25  of [(213)Bi-DOTA,Tyr(3)]octreotate and (213)Bi-diethylene triamine pentaacetic acid (DTPA) in mouse
26  (149)Tb, (212)Pb/(212)Bi, (225)Ac, and (213)Bi-have been produced and evaluated (pre)clinically for
27 r the first time that PRIT with TF2 and (213)Bi-IMP288 is feasible and at least as effective as (177)
28 ng alpha-emitting radionuclides such as (213)Bi.
29                             We assessed (213)Bi imaging capabilities of the Versatile Emission Comput
30 d (90)Y and the alpha-emitters (211)At, (213)Bi, and (212)Pb were compared.
31 or the alpha-particle emitters (211)At, (213)Bi, and (225)Ac.
32 s and the 440 keV gamma-rays emitted by (213)Bi could be imaged.
33 bined alpha-, gamma-, and x-ray emitter (213)Bi (half-life, 46 min) is promising for radionuclide the
34                 It is feasible to image (213)Bi down to a 0.75-mm resolution using a SPECT system equ
35                   Mice receiving 17 MBq (213)Bi-IMP288 showed significant weight loss, resulting in a
36 dneys of mice treated with 17 or 12 MBq (213)Bi-IMP288 showed signs of tubular damage, indicating nep
37 d with phosphate-buffered saline, 6 MBq (213)Bi-IMP288, 12 MBq (213)Bi-IMP288, and 60 MBq (177)Lu-IMP
38 ed saline, 6 MBq (213)Bi-IMP288, 12 MBq (213)Bi-IMP288, and 60 MBq (177)Lu-IMP288 was 22, 31, 45, and
39  properties and therapeutic efficacy of (213)Bi and (177)Lu for PRIT of CEA-expressing xenografts, us
40                        SPECT imaging of (213)Bi is challenging, because most emitted photons have a m
41 in frames after injection of 7.4 MBq of (213)Bi-DTPA showed renal uptake and urinary clearance, visua
42                  Finally, the effect of (213)Bi-IMP288 (6, 12, or 17 MBq) and (177)Lu-IMP288 (60 MBq)
43 The in vitro binding characteristics of (213)Bi-IMP288 (dissociation constant, 0.45 +/- 0.20 nM) to T
44                      Tumor targeting of (213)Bi-IMP288 and (177)Lu-IMP288 was studied in mice bearing
45                 In vivo accumulation of (213)Bi-IMP288 in LS174T tumors was observed as early as 15 m
46      Mice treated with a single dose of (213)Bi-IMP288 or (177)Lu-IMP288 showed significant inhibitio
47                  The biodistribution of (213)Bi-IMP288 was comparable to that of (177)Lu-IMP288.
48 The in vitro binding characteristics of (213)Bi-IMP288 were compared with those of (177)Lu-IMP288.
49               Additionally, imaging of [(213)Bi-DOTA,Tyr(3)]octreotate and (213)Bi-diethylene triamin
50 r-bearing mouse injected with 3 MBq of [(213)Bi-DOTA,Tyr(3)]octreotate, tumor uptake could be visuali
51 ms-C paradigm, but was suppressed for C-25ms-Bi (by 31%); it was unchanged for Bi only and C only.
52 i-10ms-C); click 25 ms before biceps (C-25ms-Bi); click alone (C only); and biceps alone (Bi only).
53 ctrons generated by the two-dimensional (2D) Bi square net in these materials are normally massive du
54 3+), Al(3+), Ba(2+), Co(2+), Cu(2+), Ni(3+), Bi(3+), and Sn(2+)) except Fe(2+), which was found to in
55                                 A 27% Ni-73% Bi alloy achieved 95% methane conversion at 1065 degrees
56                                            A Bi(OTf)3-catalyzed ring-opening cyclization of (hetero)a
57                         We first construct a Bi-relational graph (Birg) model comprised of both prote
58 strating rectification and photocurrent in a Bi-implanted GaLaSO device.
59 als, DFT calculations were used and showed a Bi 6s orbital polarized towards Li which could be indica
60 ty studies showed that FadD33 proceeds via a Bi Uni Uni Bi ping-pong mechanism.
61 2O' anti-cristobalite framework, which allow Bi atoms to adopt low-symmetry coordination environments
62 Bi); click alone (C only); and biceps alone (Bi only).
63 order in a nano-patterned array of amorphous Bi islands.
64 exes (Al; 5, Au; 6, Zn; 7, Mg; 8, Sb; 9, and Bi; 10).
65 lbenzaldehydes via Grignard 1,2-addition and Bi(OTf)3-catalyzed intramolecular olefinic cyclization h
66 A tight-binding model consisting of Mn-d and Bi-p states is developed and the parameters are determin
67                                  Both Ir and Bi have oxidation states that are lower than their nomin
68 s some comprehensive similarity measures and Bi-Random walk (BiRW) algorithm to identify potential no
69                  The incorporation of Nd and Bi ions on the A-site and coherent growth with the matri
70  two probes (Pt(4+)/Pb(2+)(AND)-Au NPPOX and Bi(3+)/Hg(2+)(INHIBIT)-Au NPPOX) allow selective detecti
71 e explained by the inter-diffusion of Pb and Bi elements into whole films and even into the top layer
72                      Although buckled Sb and Bi honeycombs support 2D topological insulator (TI) phas
73 ivity results indicate that Pn = As, Sb, and Bi are semiconductors with band gaps of 0.73 eV, 0.48 eV
74  Ga, and Tl) with group V (N, P, As, Sb, and Bi) elements on Si(111) substrate, including effects of
75 gen(III) chlorides (ECl3, E = P, As, Sb, and Bi) yielding triaza-pnicta-butene analogues of the type
76  other hydride-forming elements (Sb, Se, and Bi).
77        The electrochemically prepared Sn and Bi catalysts proved to be highly active, selective, and
78 ly approximately 10% as active as the Sn and Bi systems at an applied potential of E = -1.95 V and is
79 d), from molten Field's metal (Bi-In-Sn) and Bi-Sn alloys.
80 2+) features edge-sharing between the Ti and Bi polyhedra, in contrast to the dominant corner-linking
81 , HTS conductors such as REBa2Cu3O(7-x) and (Bi, Pb)2Sr2Ca2Cu3O(10-x) are both made as tapes with a h
82 h is used due to its nontoxic properties, as Bi(III) has been a reagent in medications such as Pepto-
83 s the output; this logic gate is denoted as "Bi(3+)/Hg(2+)(INHIBIT)-Au NPPOX".
84 withB-B identical withO](-) ) and Bi2 B(-) ([Bi=B=Bi](-) ), respectively.
85 nd Bi2 B(-) , containing triple and double B-Bi bonds are presented.
86 rtion of isonitrile carbon occurred at the B-Bi bond in 10 which afforded stable bismuth (boryl)imino
87  produced by laser vaporization of a mixed B/Bi target and characterized by photoelectron spectroscop
88 -B identical withO](-) ) and Bi2 B(-) ([Bi=B=Bi](-) ), respectively.
89              In order to distinguish between Bi- and host-related traps and to identify their possibl
90 iodide anion I2(*-) directly ligated to Bi, [Bi(I2(*-))Ix](n).
91 ture of state-of-the-art Bi2212 and Bi2223 ((Bi,Pb)(2)Sr(2)Ca(2)Cu(3)O(10)), finding that round wire
92 e exist in lead chalcogenides, SnTe, Bi2Te3, Bi and Sb due to the resonant bonding that is common to
93 nterfacing two gapped films-a single bilayer Bi grown on a single quintuple layer Bi(2)Se(3) or Bi(2)
94 mbohedral A7 structure of elemental bismuth (Bi) have been discovered at ambient condition, based on
95                                   In borate (Bi) and phosphate (Pi) buffers, anions must be displaced
96  and particularly from those containing both Bi and Te.
97           Among the catalysts explored, both Bi(OTf)3 and Fe(OTf)3 were found to be highly active Lew
98 cture around the Fermi level is dominated by Bi-p states which are the primary contributors to the ma
99       Moreover, the rate of CO production by Bi-CMEC ranges from approximately 0.1-0.5 mmol.cm(-2).h(
100 y carbon (GC), bismuth-coated glassy carbon (Bi-GC), and mercury-coated glassy carbon (Hg-GC) electro
101 a bismuth-carbon monoxide evolving catalyst (Bi-CMEC) can be formed under either aqueous or nonaqueou
102 radigms: biceps stimulus 10 ms before click (Bi-10ms-C); click 25 ms before biceps (C-25ms-Bi); click
103 hat of another OER cocatalyst, Co-borate (Co-Bi), in 1 M Na2CO3, reaching 10 mA/cm(2) at an overpoten
104 A systematic transport study of the codoped (Bi,Sb)2 Te3 films with varied Cr/V ratios reveals that m
105  Pi on the OER current density; in contrast, Bi exchange is sufficiently facile such that Bi has an i
106 potential in ferromagnetic thin films of Cr-(Bi,Sb)2Te3 grown on SrTiO3 By optically modulating the c
107 crowave response of a magnetised disk of Cr-(Bi,Sb)2Te3.
108 tate transport to diffusive transport in Crx(Bi,Sb)(2-x)Te3 thin films.
109 rst member of a larger homologous series Cs4[Bi(2n+4)Te(3n+6)] that exhibits unconventional supercond
110 vious work has demonstrated that Sn, Ge, Cu, Bi, and Sb ions could be used as alternative ions in per
111 irst to be structurally identified in the Cu-Bi binary system, is reported.
112                            Decreasing the Cu/Bi ratio of the CuBi2O4 photocathodes introduces Cu vaca
113 6 ](4+) in [(UO2 )(O2 )(OH)]24(24-) (denoted Bi@U24 and Pb@U24 ) in pure form and high yields despite
114                       One recently described Bi-CoPaM method can analyse expressions of the same set
115 ctivation energies in samples with different Bi contents.
116 rently embedded within the three-dimensional Bi-rich semiconducting framework.
117 C6H2(CHPh2)2-tBu-2,6,4) exists as the dimer [Bi(NON(Ardouble dagger))(S4)]2, with pi*(SOMO)-pi*(SOMO)
118 le metal cathode materials and distinguishes Bi-CMEC as a superior and inexpensive platform for elect
119  Hall effect with the thickness of Cr-doped (Bi,Sb)2 Te3 magnetic topological insulator films is stud
120  of magnetic topological insulator Cr-doped (Bi,Sb)2Te3 (CBST) films grown on SrTiO3 (1 1 1) substrat
121 tic topological insulators such as Cr-doped (Bi,Sb)2Te3 provide a platform for the realization of ver
122 ic CrSb and ferromagnetic order in Cr-doped (Bi,Sb)2Te3, we realize emergent interfacial magnetic phe
123 ous Hall (QAH) effect in magnetically-doped (Bi, Sb)2Te3 films stands out as a landmark of modern con
124 tically study the band structure of V-doped (Bi, Sb)2Te3 thin films by angle-resolved photoemission s
125 ually below 100 mK in either Cr- or V-doped (Bi,Sb)2 Te3 of the two experimentally confirmed QAH mate
126 tal observation of the QAH state in V-doped (Bi,Sb)2Te3 films with the zero-field longitudinal resist
127 ysing the formation of nanostructures during Bi-rich growth, through the vapour-liquid-solid mechanis
128 n reaction of (EE'Bi2)(2-) (E = Ga, Tl, E' = Bi; E = E' = Pb) and [U(C5Me4H)3] or [U(C5Me4H)3Cl] in 1
129           Ex situ plated Bi film electrodes (Bi-FE) have been employed, for the first time, to measur
130 plexes (MX(n), where M = Pb, Cd, In, Zn, Fe, Bi, Sb) have been studied as inorganic capping ligands f
131  the layered compound RbBi11/3Te6, featuring Bi vacancies and a narrow band gap of 0.25(2) eV at room
132 en 0.016 mg L(-1) for Li and 41 mg L(-1) for Bi.
133 are controlled by substitution of Ca(2+) for Bi(3+) cation.
134 s than one, and decreases the efficiency for Bi values larger than one.
135  from sidewalls increases the efficiency for Bi values less than one, and decreases the efficiency fo
136                      The detection limit for Bi (1.1 ng mL(-1)) is worse than with the QTA (0.16 ng m
137 all trivalent and effectively substitute for Bi(3+) in the Bi2(Se, Te)3 matrix.
138 e that Cr is preferentially substituting for Bi in the Bi2Se3 host.
139  at a 100 times lower concentration than for Bi melt-doped GeCh glasses.
140 usly with the coherent k-space topology, for Bi(2)Sr(2)CaCu(2)O(8+delta) samples spanning the phase d
141 for C-25ms-Bi (by 31%); it was unchanged for Bi only and C only.
142                                         Free Bi atoms were also observed in the DBD with nitrogen, hy
143                                         Free Bi atoms were essentially absent outside the central par
144 olarization, even render depolarization-free Bi(0).(5)Na(0).(5)TiO(3)-based 0-3-type composites.
145  in accord with the fact that almost no free Bi atoms exist beyond the physical boundaries of the DBD
146 ers indicates significant reactivity of free Bi atoms, which is in accord with the fact that almost n
147 oltage gain by vertically stacking graphene, Bi(2)Sr(2)Co(2)O(8) (p-channel), graphene, MoS(2) (n-cha
148 ptionally complicated structure with helical Bi-O rods cross-linked by 1,3,5-benzenetricarboxylate (B
149 dal CsPbBr3 perovskite NCs with heterovalent Bi(3+) ions by hot injection to precisely tune their ban
150 ects, qualitatively consistent with the high Bi: Ir ratio found in the films.
151 S, Se, Te) family of glasses, with very high Bi or Pb 'doping' concentrations (~5-11 at.%), incorpora
152 ain boundaries by liquid-phase compaction in Bi(0.5)Sb(1.5)Te3 (bismuth antimony telluride) effective
153                Conversely, anion exchange in Bi is rapid (kassoc = 13.1 +/- 0.4 M(-1) s(-1) at 25 deg
154 duced significant repression of DDR genes in Bi-Tg thyrocytes (P=2.4 x 10(-4)) compared with either P
155 th this, genetic instability was greatest in Bi-Tg thyrocytes with a mean genetic instability (GI) in
156  Although there has been intense interest in Bi-based topological insulators, their behaviour is comp
157 onsistent with the OER activity of Co-OEC in Bi and Pi.
158 t by codoping Cr and V magnetic elements in (Bi,Sb)2 Te3 TI, the temperature of the QAH effect can be
159                   We find that incorporating Bi suppresses the formation of GaAs-like electron traps,
160 ransport through a 3D topological insulator (Bi(1.33)Sb(0.67))Se3 nanowire.
161 n-film, ferromagnetic topological insulator (Bi, Sb)2-x V x Te3.
162        The quaternary topological insulator (Bi,Sb)2(Te,Se)3 has demonstrated topological surface sta
163 irst insertion reactions of CO2 and COS into Bi-C bonds are observed with this oxyaryl dianionic liga
164 ap ( 20 meV) equal to half that of intrinsic Bi-2212 ( 40 meV).
165 sence of platinum (Pt(4+)) and bismuth ions (Bi(3+)) are presented.
166 bilayer Bi grown on a single quintuple layer Bi(2)Se(3) or Bi(2)Te(3).
167 ) and olive oils (W, Fe, Mg, Mn, Ca, Ba, Li, Bi), which supports their utility in traceability.
168 gion similar to where the supercooled liquid Bi is observed.
169 sition, accompanied by ordering of the local Bi displacements and reorientation of the nanoscale ferr
170 inarisation of consensus partition matrices (Bi-CoPaM) method can combine clustering results from mul
171                             Mechanistically, Bi(OTf)3 serves as a stable and easy to handle precursor
172 ' = chemisorbed), from molten Field's metal (Bi-In-Sn) and Bi-Sn alloys.
173 thyrocytes from a bitransgenic murine model (Bi-Tg) of thyroid-specific PBF and PTTG overexpression.
174 ismuth-based metal-organic framework (MOF), [Bi(BTC)(H2O)].2H2O.MeOH denoted CAU-17, was synthesized
175 this study, the ability of a nanocrystalline Bi foam electrode to serve as an efficient and high capa
176 esponding product from reaction with the new Bi(II) radical Bi(NON(Ardouble dagger))(*) (Ar(double da
177                     For example, circa 10 nm Bi NCs capped with (N2H5)4Sb2Te7 chalcogenidometallate l
178 ed conductance in the surface bands of 50-nm Bi nanowires.
179  Hf showed the lowest Dmin values, </=10 nm; Bi, W, In, Pb, Pt, Ag, Au, Tl, Pd, Y, Ru, Cd, and Sb had
180 perovskite structure to incorporate nontoxic Bi(3+) into the perovskite lattice in Cs2AgBiBr6 (1).
181            We define a modified Biot number (Bi) as an indicator of requirements for sidewall insulat
182 e and double bonds with boron in BiB2 O(-) ([Bi identical withB-B identical withO](-) ) and Bi2 B(-)
183             Several Bi 6p x/y bands of Y2 O2 Bi are raised in energy by oxygen doping because the 2p
184    When doped with oxygen, the layered Y2 O2 Bi phase becomes a superconductor.
185 erconductivity is satisfied in O-doped Y2 O2 Bi.
186 s calculations for undoped and O-doped Y2 O2 Bi.
187                                The amount of Bi found in acidic leachates of the interiors of both at
188 monstrate its application to the analysis of Bi(6)Ti(2.8)Fe(1.52)Mn(0.68)O18 (B6TFMO) thin films, tha
189 ts not only pave the way for applications of Bi(0).(5)Na(0).(5)TiO(3)-based piezoceramics, but also h
190                         We report a class of Bi-birnessite (a layered manganese oxide polymorph mixed
191                     Through a combination of Bi determination methods the compositional profile of th
192  have identified an optimized composition of Bi(1.5)Sb(0.5)Te(1.7)Se(1.3) with the highest resistivit
193 ptimized; among others, the concentration of Bi(3+) ions, the deposition conditions for the bismuth-f
194 mulated small-angle X-ray scattering data of Bi@U24 and Pb@U24 solutions revealed that this technique
195 can be used for the routine determination of Bi, providing repeatability and accuracy comparable to t
196              The electrical doping effect of Bi is observed at a 100 times lower concentration than f
197 n ascribed to the 6s(2) lone-pair effects of Bi(3+) at around 135 K, and a long-range antiferromagnet
198    These metrics highlight the efficiency of Bi-CMEC, since only noble metals have been previously sh
199 , as demonstrated by the material example of Bi/Cl/Si(111) nanofilm.
200                         The high fraction of Bi deposited in the atomizers indicates significant reac
201  chalcogenide glasses by ion implantation of Bi into GeTe and GaLaSO amorphous films, demonstrating r
202 his is the first experimental observation of Bi-B double and triple bonds, opening the door to design
203 ans of ab initio calculations a new phase of Bi which is a topological crystalline insulator characte
204 e-like activity of Au NPs in the presence of Bi(3+) is a result of the various valence (oxidation) st
205 ture and the magneto-transport properties of Bi(1.5)Sb(0.5)Te(3-x)Se(x) (BSTS) series.
206 The remarkable difference in atomic radii of Bi and Se in Bi2Se3 may explain why Bi2Se3 shows differe
207 of the various valence (oxidation) states of Bi(3+) and Au (Au(+)/Au(0)) atoms on the nanoparticle's
208   Here, we probe the electronic structure of Bi(2)Se(3) employing high resolution photoemission spect
209 II) compounds with sulfur gives mixtures of [Bi(NON(R))]2(mu2-Sn) (NON(R) = [O(SiMe2NR)2](2-)).
210 eadily on the electrodeposited Pt but not on Bi.
211 her hydride forming elements (As, Sb, Se) on Bi response by AAS using DBD and QTA atomizers was inves
212 g energies and exhibits contrasting shift on Bi and Se terminated surfaces with complex time dependen
213 oncentrations of up to ~35%, substituting on Bi sites, were achieved for Dy, Gd, and Ho doping.
214 wn on a single quintuple layer Bi(2)Se(3) or Bi(2)Te(3).
215 unneling microscope to explore an overdoped (Bi, Pb)2Sr2CuO6+delta with a large Fermi surface (FS).
216  Zn, As, Se, Sr, Mo, Cd, Sn, Sb, Ba, Hg, Pb, Bi, Th, and U) in green coffee samples and their infusio
217 agram for the LnAuZ (Z = Ge, As, Sn, Sb, Pb, Bi) family of phases.
218 rface methodology to identify the optimal Pd-Bi-Te catalyst stoichiometry.
219                               Ex situ plated Bi film electrodes (Bi-FE) have been employed, for the f
220 operties of single elemental polycrystalline Bi via spark plasma sintering results in 'double-decoupl
221 ectrum of quinone substrates via a Ping Pong Bi Bi steady-state kinetic mechanism, generating the cor
222 riented GaAs1-xBix/GaAs structure possessing Bi surface droplets capable of catalysing the formation
223 lical Dirac fermions emerge in predominantly Bi bilayer states, which are created by a giant Rashba e
224 n water with precipitation of its protecting Bi(3+)-counterions, it rapidly aggregates to ~22 angstro
225 on, based on microstructure analyses of pure Bi samples treated under high pressure and high temperat
226 ct from reaction with the new Bi(II) radical Bi(NON(Ardouble dagger))(*) (Ar(double dagger) = C6H2(CH
227 ts comprising the determination of recovered Bi in the nitric acid leachates from deposition in the a
228                                The resulting Bi-NaTi2(PO4)3 cell was tested under various salination
229                    The morphology of the RGO/Bi nanocomposites provides a better choice as an electro
230 by stripping voltammetric analysis using RGO/Bi nanocomposite as an electrode material.
231  the large-gap insulators, KHgX (X = As, Sb, Bi), which we propose as the first material class whose
232 H2 CH2 NSiMe2 Bu(t) )3 , An=U, Pn=P, As, Sb, Bi; An=Th, Pn=P, As; Tren(TIPS) =N(CH2 CH2 NSiPr(i)3 )3
233                                The planar Sb/Bi honeycomb structure restores the mirror symmetry, and
234                         We predict planar Sb/Bi honeycomb to harbor a two-dimensional (2D) topologica
235  that the electronic spectrum of a planar Sb/Bi nanoribbon with armchair or zigzag edges contains two
236 odissociation spectroscopy of mass-selected [Bi(CO2 )n ](-) cluster ions was used to follow the struc
237 on by NTMT1 proceeds via a random sequential Bi Bi mechanism.
238                                      Several Bi 6p x/y bands of Y2 O2 Bi are raised in energy by oxyg
239 ve carbon electrode using an organic soluble Bi(3+) precursor streamlines preparation of this materia
240  electrical resistivity measurement to study Bi(Ni1/2Ti1/2)O3 perovskite under high pressure.
241 iated flakes of the high-T c superconductor, Bi-2212, and the CDW-dominated TMD layered material, 1T-
242 ible with the 6p x/y orbitals of surrounding Bi atoms.
243 tion and basic properties of two new ternary Bi-O-S compounds, Bi2OS2 and Bi3O2S3.
244                                       The Th-Bi combination was too unstable to isolate, underscoring
245        Chemical bonding analyses reveal that Bi forms triple and double bonds with boron in BiB2 O(-)
246 Bi exchange is sufficiently facile such that Bi has an inhibitory effect on OER.
247                                          The Bi-B double and triple bond strengths are calculated to
248  biceps muscle (on average by 49%) after the Bi-10ms-C paradigm, but was suppressed for C-25ms-Bi (by
249 ge of bandgaps varying from 0.24 eV (for the Bi compound) to 0.87 eV (for the P compound).
250  atoms are the centers of Bi4 squares in the Bi square net.
251 sitions are correlated to the changes in the Bi-Te bond and bond angle as function of pressures.
252 als of Cu to reversibly intercalate into the Bi-birnessite-layered structure during its dissolution a
253                           The ability of the Bi film electrode to perform speciation measurements was
254 er on the one hand and quantification of the Bi fraction transportable outside the atomizer on the ot
255                  REBiTe3, wherein 50% of the Bi is substitutionally replaced by a RE atom (RE = Gd, D
256 , we have demonstrated the usefulness of the Bi-CoPaM-based approach, which may be helpful for the an
257 eans of a systematic kinetic analysis of the Bi-Te system reacting to Bi2Te3, we establish a third po
258 val of ions and thus the plating rate on the Bi UME, to one ion every few seconds.
259  fields from anisotropic hole pockets on the Bi(111) surface.
260  believe that with further optimizations the Bi/BiOCl electrode will enable efficient and practical d
261 to its better functional properties over the Bi film electrode.
262 midazolium based ionic liquid promoters, the Bi-CMEC platform can selectively catalyze conversion of
263 lar structure of LiBi(TPP)2 is such that the Bi sits between the porphyrins and is directed towards t
264 "nanotracks" are found to exist trailing the Bi droplets on the sample surface.
265 ination conditions were identified where the Bi/NaTi2(PO4)3 cell achieved a desalination/salination c
266  energy of electron traps decreases with the Bi (or N)-related downward shift of the conduction band.
267                 The measured values with the Bi-FE were in good agreement with the values obtained us
268  substrate choice and film thickness on the (Bi, Sb)2Te3 unit cell using high-resolution X-ray diffra
269 the interlayer charge transfer between these Bi/Cu dual vacancies, which results in the significant i
270      The integrated device consisted of thin Bi, Ag, and Pt films (serving as the working, reference,
271               An appealing attribute of this Bi-2212 conductor is that, being without macroscopic tex
272 of electrical and thermal parameters through Bi/Cu dual vacancies.
273 gh leakage to be oxide ion conduction due to Bi-deficiency and oxygen vacancies induced during materi
274 he diiodide anion I2(*-) directly ligated to Bi, [Bi(I2(*-))Ix](n).
275 employing bismuth trifluoromethanesulfonate [Bi(OTf)3] as the Lewis acid.
276 ecent theoretical calculations, at least two Bi-related traps were revealed and associated with Bi pa
277  any kind of An-Sb molecular bond, and the U-Bi bond is the first two-centre-two-electron (2c-2e) one
278                               However, the U-Bi complex is the heaviest 2c-2e pairing of two elements
279 showed that FadD33 proceeds via a Bi Uni Uni Bi ping-pong mechanism.
280  "INHIBIT" logic gate is fabricated by using Bi(3+) and Hg(2+) as the input and the peroxidase-like a
281 dvantages and potential limitations of using Bi as a Cl-storage electrode.
282 ed and developed via one-pot synthesis using Bi(NO3)3 as a catalyst.
283 e obtained in good to excellent yields using Bi(OTf)3, NH4OAc, or N2H4.
284                                         When Bi as a Cl-storage electrode was coupled with NaTi2(PO4)
285                                         When Bi(3+) and Hg(2+) coexist, strong Hg-Au amalgamation res
286                                          Why Bi(2)Sr(2)CaCu(2)Ox (Bi2212) allows high critical curren
287                                   AGNES with Bi-FE yielded a very good detection limit (3sigma) for P
288 ated traps were revealed and associated with Bi pair defects, i.e. (VGa+BiGa)(-/2-) and (AsGa+BiGa)(0
289                    As a result, BiCuSeO with Bi/Cu dual vacancies shows a high ZT value of 0.84 at 75
290 et, porous, paper-like substrate coated with Bi(OH)3 or its alkaline derivatives at pH 11.
291        The highest yields were observed with Bi-, Te-, and Pb-based additives, and particularly from
292 ping of acidic H2S gas and its reaction with Bi(III) species, forming colored Bi2S3.
293  correlations above TC in underdoped BaPb1-x Bi x O3, and provide information on the dynamical interp
294  transient terahertz conductivity of BaPb1-x Bi x O3--a material for which superconductivity is "adja
295         Deep-level defects in n-type GaAs1-x Bi x having 0 </= x </= 0.023 grown on GaAs by molecular
296                             Recently, (Sb1-x Bi x )2Te3 was introduced as a non-metallic TI whose car
297 of observing excitonic instability of (Sb1-x Bi x )2Te3.
298 ast carrier dynamics in the series of (Sb1-x Bi x )2Te3.
299 d rare-earth ternary compounds La3Cu3X4 (X = Bi, Sb, As, and P) using first principles electronic str
300       Here we report that Bi2Sr2CaCu2O(8-x) (Bi-2212) can be made in the much more desirable isotropi
301                The phase diagram of BaPb(1-x)Bi(x)O3 exhibits a superconducting dome in the proximity
302    At native densities in the model Bi2X3 (X=Bi, Te) compounds, defect resonance states are predicted

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