ライフサイエンスコーパス: tellurium

1 with tetrahedral coordination preference to tellurium.

2 oichiometric amount of dissolved selenium or tellurium.

3 Tellurium, a byproduct of copper refining, which is crit

4 terials (particularly the germanium antimony tellurium alloy Ge2Sb2Te5) exploited the reversible chan

5 ility studies of AdoMet and its selenium and tellurium analogues, Se-adenosyl-L-selenomethionine and

6 lly important oxyanions of selenium (Se) and tellurium and another Se-containing anion, selenocyanate

7 g micrometer-thick layers of polystyrene and tellurium and demonstrates omnidirectional reflection ov

8 Here we report the synthesis of colloidal tellurium and selenium nanostructures using thiolated ch

9 rbon, nitrogen, oxygen, sulfur, selenium and tellurium are reported, and no multiple bonds to phospho

10 ons of a diborene with elemental selenium or tellurium are shown to afford a diboraselenirane or dibo

11 rylium nuclei included sulfur, selenium, and tellurium at the 1-position.

12 plex combining a hypervalent four-coordinate tellurium atom and an octahedral platinum center.

13 up a wide range of future studies involving tellurium-based polyheterocycles.

14 kyne, affording access to a series of 11 new tellurium-boron heterocycles.

15 When Br(2) adds to the tellurium center the absorption spectrum shifts to a low

16 ase in the electron releasing ability of the tellurium center upon switching from an eight-electron c

17 nd calculated electrostatic potential at the tellurium center.

18 r an understanding of the unique features of tellurium chemistry with an emphasis on hypervalency, th

19 explored the effect of the immunomodulating tellurium compound ammonium trichloro (dioxoethylene-o,o

20 ecifically, we demonstrate that the nontoxic tellurium compound AS101, currently being evaluated in c

21 dppp)(2) (4), the first metalated hexavalent tellurium compound, which is formed by reaction of 2 wit

22 mply that the structures and reactivities of tellurium compounds can be extrapolated from the behavio

23 ionization energies of sulfur, selenium, and tellurium compounds has been determined by charge-transf

24 rging importance of the unique properties of tellurium compounds is apparent from the variety of thei

25 Two new tellurium-containing nitrides were grown from reactions

26 tructure of 1,8-peri-substituted naphthalene tellurium derivatives.

27 Tellurium-derived cuprate organometallics offered an eff

28 For the atomization of tellurium directly from a solid nickel alloy, and the at

29 We achieved this goal in iron tellurium (Fe(1+ y)Te), the nonsuperconducting parent co

30 red-shift in absorption upon substitution of tellurium for sulfur.

31 .6 at 923 K, the highest ever reported for a tellurium-free chalcogenide.

32 , the DNA duplex modified with electron-rich tellurium functionality showed strong topographic and cu

33 ntly, the presence of a sulfur, selenium, or tellurium heteroatom in the molecules had no predictable

34 The scant attention paid to tellurium in both inorganic and organic chemistry textbo

35 d the direct determination of phosphorus and tellurium in nickel alloys and of cobalt in glass.

36 xcellent solubility of sulfur, selenium, and tellurium in phosphonium ionic liquids promotes fast rea

37 that the atomic substitution from sulfur to tellurium increases electronic coupling to decrease the

38 ies of hexagonal nanostructured platinum/tin/tellurium inorganic/surfactant composites.

39 Slow oxidation of tellurium ions in cadmium telluride (CdTe) nanoparticles

40 Elemental tellurium may be recovered and reused.

41 The chiral tellurium nanostructures are transformed into chiral gol

42 The synthesis conditions are tuned to obtain tellurium nanostructures with chiral shapes and large op

43 work-engaged synthesis route based on porous tellurium nanotubes as a sacrificial template for hierar

44 Tellurium-nanowire-coated glassy carbon electrodes (TNGC

45 molecular species from one-dimensional (1D) tellurium nanowires (Te NWs) has been achieved at 1 V.

46 TNGCEs were prepared by direct deposition of tellurium nanowires, 600 +/- 150 nm in length and 16 +/-

47 de ferroelectrics, a thin frost of elemental tellurium, or a plating of magnetite or pyrites.

48 Chemical dissimilarity of tellurium oxide with silica glass increases phase separa

49 (0)) from aqueous streams containing soluble tellurium oxyanions, tellurate (Te(VI)), and tellurite (

50 genomes, including TerC and TerD involved in tellurium resistance.

51 e of common Allium fistulosum to mercury and tellurium salts under ambient conditions resulted in the

52 mellar patterns in electrodeposited selenium-tellurium (Se-Te) alloy films grown under noncoherent, u

53 2 with M = (tungsten or molybdenum) and X = (tellurium, selenium, or sulfur).

54 us to explicitly study sulfur to selenium to tellurium substitution in D-A copolymers for the first t

55 However, even though tellurium substitution increases electronic dispersion v

56 cuses on the microbial recovery of elemental tellurium (Te(0)) from aqueous streams containing solubl

57 ally and then fed a diet containing metallic tellurium (Te) from P20 to P27 to induce demyelination.

58 volatile elements sulfur (S), selenium (Se), tellurium (Te), and antimony (Sb) in the silicate Moon c

59 orresponding bromotocopherols, reaction with tellurium tetrachloride and reductive workup.

60 ption and dissociation of O2 , especially at tellurium vacancy sites.

61 le unit is varied from sulfur to selenium to tellurium, which allows us to explicitly study sulfur to

62 ctivity by substitution of a small amount of tellurium with isoelectronic sulfur.

63 T-m materials (LAST for Lead Antimony Silver Tellurium) with different m values at the atomic as well