ライフサイエンスコーパス: Auger electron

1 11)In emits gamma-photons and conversion and Auger electrons.

2 emits a higher percentage of conversion and Auger electrons.

3 condary electron cascading initiated by slow Auger electrons.

4 64% was from conversion electrons, 16% from Auger electrons, 20% from gamma-photons and x-rays, resp

5 When delivered by Ab LL1, both Auger electron and beta-particle emitters can produce sp

6 medium-energy beta(-) emission with those of Auger electrons and emits fewer photons than (111)In.

7 omising candidates for molecular imaging and Auger electron-based radionuclide therapy.

8 prepared with (57)Co or (58m)Co for SPECT or Auger electron-based therapy, respectively.

9 In xenon clusters, photo- and Auger electrons contribute more significantly to the nan

10 entical final states created by a direct and Auger-electron emission, respectively.

11 When incorporated into DNA, short-range Auger electrons emitted by 125I-labeled IUdR can cause d

12 5-iodo-2'-deoxyuridine radiolabeled with the Auger electron emitter 123I or 125I (*IUdR).

13 When labeled with the Auger electron emitter 123I or 125I, IUdR demonstrates t

14 5-iodo-2'-deoxyuridine radiolabeled with the Auger electron emitter 125I (125IUdR) is highly toxic to

15 cells to study the radiotoxic effects of the Auger electron emitter 125I delivered to the cells by OD

16 he radiopharmaceutical radiolabeled with the Auger electron emitter 125I was therapeutically effectiv

17 ith the beta-particle emitter (177)Lu or the Auger electron-emitter (111)In.

18 '- deoxyuridine (IUdR) radiolabeled with the Auger electron emitters 123I and 125I in several animal

19 When labeled with the subcellular range Auger electron emitters 125I and 123I, the thymidine ana

20 more specific in single-cell kill than other Auger electron emitters and beta-particle emitters, usin

21 The energy deposition of most Auger electron emitters at DNA scales of 2 nm or less ex

22 Since this carrier of Auger electron emitters has antineoplastic effects ([123

23 r data demonstrate that the radiotoxicity of Auger electron emitters is determined by the radiation d

24 ors, but the high specificity indices of the Auger electron emitters may be an advantage.

25 Optimal cancer radiotherapy using Auger electron emitters requires selective localization

26 Auger electron emitters such as (125)I have a high linea

27 gher levels of nonspecific toxicity than the Auger electron emitters, but both 131I and 90Y, and part

28 ody to CD74 (LL1) linked to (111)In or other Auger electron emitters.

29 The therapeutic potential of Auger-electron emitting radionuclides is strongly depend

30 f tumor cells in vitro was achieved using an Auger electron-emitting antisense MORF oligomer administ

31 new alpha-particle-, beta(-)-particle-, and Auger electron-emitting radiometals-such as (67)Cu, (47)

32 been demonstrated that uptake of diagnostic Auger electron-emitting radionuclides by male germ cells

33 mor cells and therefore may be used to carry Auger electron-emitting radionuclides such as (111)In fo

34 cerns the testicular uptake and dosimetry of Auger electron-emitting radionuclides that are used duri

35 In this study, the virtues of 12 Auger electron-emitting radionuclides were evaluated in

36 possible to obtain a therapeutic effect from Auger-electron-emitting radionuclides administered at ra

37 d a two-step targeting strategy to transport Auger-electron-emitting radionuclides into the cell nucl

38 We have simulated the oxygen 1s Auger-electron spectra of normal and heavy liquid water

39 situ low-energy electron diffraction (LEED), Auger electron spectroscopy (AES), and low-energy ion sc

40 copy (EDS) and a quantitative measurement by Auger electron spectroscopy (AES).

41 emical analysis with X-ray photoelectron and Auger electron spectroscopy on model dense thin films an

42 ycrystalline alloys are studied by utilizing Auger electron spectroscopy, low energy ion scattering s

43 RS intensities, hydrogen TPD peak areas, and Auger electron spectroscopy, quantitative estimates of t

44 otron X-ray diffraction, Raman spectroscopy, Auger electron spectroscopy, secondary ion mass spectrom

45 I produces a shower of low energy electrons (Auger electrons) that cause strand breaks in DNA in a di

46 clides as well as radionuclides suitable for Auger electron therapies.

47 l radionuclides used in medical imaging emit Auger electrons, which, depending on the targeting strat