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1  years) resemble closely high-redshift Lyman-alpha emitters.
2 tage of also being able to image beta(-) and alpha emitters.
3 for other high-affinity mAbs and short-lived alpha-emitters.
4  enable tissue- or cell-specific delivery of alpha-emitters.
5 e applied to isolate the residual long-lived alpha-emitters (148)Gd, (154)Dy, and (146)Sm and the bet
6 demonstrated the therapeutic efficacy of the alpha-emitter (149)Tb and beta(-)-emitter (161)Tb.
7 g-lived beta-emitters (129)I, (36)Cl and the alpha-emitters (154)Dy, (148)Gd, (150)Gd, and (146)Sm fr
8 es were dominated by the naturally occurring alpha-emitter (210)Po and that Fukushima-derived doses w
9                                          The alpha-emitter (211)At deposits a high amount of energy w
10 h the beta-emitters (131)I and (90)Y and the alpha-emitter (211)At in patients with recurrent and new
11 eveloping radiotherapeutics labeled with the alpha-emitter (211)At.
12 emitters (188)Re, (177)Lu, and (90)Y and the alpha-emitters (211)At, (213)Bi, and (212)Pb were compar
13 molecule labeled with the in vivo-generating alpha-emitter (212)Pb, was investigated in a phase 0 tri
14                                     With the alpha-emitter (213)Bi, significant efficacy was obtained
15 actionated FAPI RPT with the short-half-life alpha-emitter (213)Bi-FAPI-46 is a promising approach th
16                            We concluded that alpha-emitter (213)Bi-labeled monoclonal antibody target
17                                          The alpha-emitter, (213)Bi (T(1/2) = 45.6 min), was conjugat
18 B7 monoclonal antibodies (MAbs) labeled with alpha-emitter 213Bi and Cryptococcus neoformans cells as
19 going targeted radiotherapy or receiving the alpha emitter (223)Ra, which cannot be feasibly imaged c
20 ination with chemotherapy and the use of the alpha emitter (223)Ra-dichloride in prostate cancer, pri
21 tion at DNA scales was also compared with an alpha emitter, (223)Ra.
22      In addition to being the first approved alpha-emitter, (223)RaCl2 is the first radiopharmaceutic
23 cept, DOTAylated-huCC49 was labeled with the alpha-emitter (225)Ac to target tumor-associated glycopr
24                             In contrast, the alpha-emitter 225Ac-DOTA-daratumumab had a dose-dependen
25                            They comprise the alpha-emitter (227)Th complexed to a 3,2-hydroxypyridino
26 noclonal antibody J591 radiolabeled with the alpha emitter actinium-225.
27 ng noninterventional REASSURE study ((223)Ra alpha-Emitter Agent in Nonintervention Safety Study in m
28 5)Ac in this model suggests a preference for alpha-emitters alone, or possibly in combination, in the
29 ay to develop effective stable chelators for alpha-emitters and are at various stages of development
30 chemistry, and the increased availability of alpha-emitters appropriate for clinical use, have recent
31                                (223)Ra is an alpha-emitter approved for the treatment of bone metasta
32                  These findings suggest that alpha-emitters are highly efficacious in MRD settings, w
33            According to the presented model, alpha-emitters are needed to achieve radiation doses hig
34                                              alpha-emitters are particularly well adapted to this app
35  exquisitely sensitive to radiation, and the alpha-emitter astatine-211 (211At) deposits prodigious e
36 erapy with an anti-CD45 mAb labeled with the alpha-emitter, astatine-211 ((211)At), as a conditioning
37 ther the short-lived (half-life, 46 minutes) alpha-emitter bismuth 213 ((213)Bi) conjugated to an ant
38                     Here, we substituted the alpha-emitter bismuth-213 (213Bi) linked to a monoclonal
39 at pretransplant radioimmunotherapy with the alpha-emitter bismuth-213 (Bi) coupled to anti-CD45 or a
40      Unlike beta particle-emitting isotopes, alpha emitters can selectively kill individual cancer ce
41 This perspective discusses the advantages of alpha-emitter-carrying radiopeptides for the targeted al
42 ode" for TAT to determine whether localizing alpha-emitters closer to the DNA increases their cytotox
43 uding several promising low-energy beta- and alpha-emitters, for radionuclide therapy.
44 sing targeted radiotherapeutics labeled with alpha-emitters have been developed.
45  membrane antigen (PSMA)-targeting beta- and alpha-emitters have been introduced, with promising resp
46                                     Although alpha-emitters have been studied for many decades, their
47 dium-223 dichloride (radium-223), a targeted alpha-emitter, improved overall survival compared with p
48             There are large amounts of heavy alpha-emitters in nuclear waste and nuclear materials in
49 m is beginning to change in the direction of alpha emitter-labeled analogs, as these demonstrate a co
50                                              alpha-emitter-labeled anti-CD20 antibodies are promising
51 herapeutics for NHL, although a longer-lived alpha-emitter may be of greater efficacy.
52                                          For alpha-emitters, microtumors receive high doses (>20 Gy o
53       Alternatively, radioimmunotherapy with alpha-emitters offers the advantage of depositing much h
54     Alpha-particle immunotherapy by targeted alpha-emitters or alpha-emitting isotope generators is a
55                                    Diffusing alpha-emitter radiation therapy (DaRT), a novel solid tu
56 tential therapeutic efficacy of beta- versus alpha-emitter radioimmunotherapy using radiolabeled DOTA
57  with tracers for imaging and with beta- and alpha-emitter radionuclides for radioimmunotherapy.
58                                              Alpha-emitter radiopharmaceutical therapy (alpha-RPT) is
59                                              Alpha-emitter radiopharmaceutical therapy delivers highl
60             We hypothesized the BM-targeting alpha-emitter radium-223 dichloride (Ra223) could target
61                               Conclusion: An alpha-emitter's proximity to the DNA yields higher cytot
62       Radium-223 dichloride (radium-223), an alpha emitter, selectively targets bone metastases with
63 icity from longer path lengths compared with alpha emitters such as (211)At, which has a higher energ
64 mans and showed the benefit of instead using alpha-emitters such as (211)At.
65                     Radioimmunotherapy using alpha-emitters such as (213)Bi, (211)At, and (225)Ac has
66                                (211)At is an alpha-emitter that may engender less toxicity than other
67               (211)At is among the potential alpha-emitters that are favorable for this concept.
68 are emphasized, and new concepts in targeted alpha-emitter therapy are introduced.
69                                     Targeted alpha-emitter therapy with isotopes such as (212)Pb has
70       However, the deposition of high-energy alpha-emitters to tumor markers adjacent to a typical le
71 fore, fractionated FAPI RPT with (213)Bi, an alpha-emitter with a half-life of 46 min, appears to be
72 sites, making it an optimal method to target alpha-emitters with short half-lives, such as bismuth-21