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1  of the dopamine D(2)/D(3) antagonist [(18)F]fallypride.
2 scan with the high affinity D2R tracer [18 F]fallypride.
3 nalysis and by radioligand assay using (18)F-fallypride.
4 hMSC-D2R80A showed specific binding of (18)F-fallypride.
5 thymic rats was performed by PET using (18)F-fallypride.
6 cated by binding potential (BPND) for [(18)F]fallypride.
7 ET scanning with the D(2)/D(3) ligand [(18)F]fallypride.
8 dopamine D-2/D-3 receptor radioligand, (18)F-fallypride.
9                      After intravenous (18)F-fallypride (28-37 MBq) administration, normal rats and r
10 atched HC (21 M; 10 F) subjects using [(18)F]fallypride, a high-affinity D(2/3) receptor ligand, to m
11           All completed PET imaging with 18F-fallypride, a high-affinity D2-like receptor ligand, in
12                                        (18)F-fallypride and (18)F-fluoromisonidazole were successfull
13                                        (18)F-fallypride and (18)F-fluoromisonidazole, two well-establ
14  D(2)/D(3) dopamine receptor ligand [(1)(8)F]fallypride and BOLD fMRI while they performed the Stop-s
15  the spleen were visualized in vivo by (18)F-fallypride and confirmed by immunostaining.
16 a dual-scan PET imaging protocol with [(18)F]fallypride and d-amphetamine to measure DA responsivity
17  receptor availability, measured with [(18)F]fallypride and positron emission tomography (PET).
18 als ([(18)F]Flumazenil, [(18)F]PBR06, [(18)F]Fallypride, and [(18)F]FEPPA), performing > 800 experime
19 alities, including (11)C, (15)O-water, (18)F-fallypride, and L-3,4-dihydroxy-6-(18)F-fluorophenylalan
20 s demonstrate the potential utility of (18)F-fallypride as a PET agent for islet cells.
21 tron emission tomography imaging with [(18)F]fallypride at baseline and after administration of oral
22 sitron emission tomography (PET) with [(18)F]fallypride before and after an oral dose of d-amphetamin
23  of islets by streptozotocin decreased (18)F-fallypride binding in pancreas by greater than 50%, para
24                        The decrease in (18)F-fallypride binding in the extrastriatal regions points t
25                                        (18)F-fallypride binding to isolated rat islets and pancreas w
26                                        (18)F-fallypride bound to isolated islet cells and pancreatic
27  20, 65-79 years); (ii) pharmacokinetic, 18F-fallypride D2/3 receptor imaging and clinical outcome da
28 een behavioral switch costs and vmPFC [(18)F]fallypride displacement suggested that participants show
29 accounts for time-dependent changes in (18)F-fallypride displacement.
30 le, we synthesized several transport peptide-fallypride fusion molecules as model systems and determi
31 ans, 19 post-treatment scans); and (iii) 18F-fallypride imaging of an antipsychotic free Alzheimer's
32 ing positron emission tomography with [(18)F]fallypride in 43 human subjects with body mass indices (
33  12 MBq of the D(2/3) receptor ligand [(18)F]fallypride in a block design with 2 parts.
34 OPA and dopamine D2/3 receptor ligand [(18)F]fallypride in aged transgenic rats carrying human pathog
35 l decrease in the binding potential of (18)F-fallypride in extrastriatal regions: thalamus (-20%), am
36                              Uptake of (18)F-fallypride in the pancreas was confirmed by radiochromat
37 odel was used to study localization of (18)F-fallypride in the pancreas, in vitro and ex vivo.
38 -amphetamine-induced displacements of [(18)F]fallypride in the striatal and extrastriatal brain regio
39 acement of the D(2/3) receptor ligand [(18)F]fallypride in the vmPFC (maximum T value = 13.8; cluster
40 orter for in vivo hMPC PET tracking by (18)F-fallypride is a significant step toward potential noninv
41 r and subsequently studied ex vivo for (18)F-fallypride localization in the pancreas.
42  found a negative correlation between [(18)F]fallypride nondisplaceable binding potential (BP(ND)) an
43 e high-affinity D(2/3) PET radioligand (18)F-fallypride offers the possibility of measuring both stri
44  connectivity (FC) using simultaneous [(18)F]fallypride PET and resting-state fMRI in awake male rhes
45 ility in an overlapping cohort using [(18)F]-fallypride PET did not identify any effects of genetic r
46 this genotype.These results show that [(18)F]fallypride PET imaging is sensitive to dysregulation of
47 ponsiveness that can be measured using (18)F-fallypride PET in a single scanning session.
48 ng of task administration for a single (18)F-fallypride PET protocol and the linearized simplified re
49 hy volunteers underwent a single-bolus (18)F-fallypride PET protocol.
50 or impulsivity and underwent a second [(18)F]fallypride PET scan.
51 or impulsivity and underwent a second [(18)F]fallypride PET scan.
52                         Here, we applied 18F-fallypride PET studies to assess striatal and extrastria
53 e of trait impulsivity and concurrent [(18)F]fallypride PET, a method that allows quantification of D
54 d into the spleen and visualized using (18)F-fallypride PET.
55                                 Using [(18)F]fallypride positron emission tomography and blood oxygen
56            Through the combined use of (18)F-fallypride positron emission tomography and magnetic res
57 26 healthy control subjects underwent [(18)F]fallypride positron emission tomography to measure ventr
58 e used magnetic resonance imaging and [(18)F]fallypride positron emission tomography, respectively, t
59                Participants completed [(18)F]fallypride positron emission topography (PET) imaging in
60 ded d-amphetamine (dAMPH) study, with [(18)F]fallypride positron emission topography (PET) imaging, a
61 aseline PET scan with the D2/3 ligand [(18)F]fallypride, rats received 6 mg/kg MPH, orally, twice eac
62 aseline PET scan with the D2/3 ligand [(18)F]fallypride, rats were trained to self-administer cocaine
63 on tomography with [(11)C]NNC-112 and [(18)F]fallypride, respectively.
64                          When a single (18)F-fallypride scanning protocol is used, task timing is cri
65  rats demonstrated greater binding of [(18)F]fallypride than LRRK2-G2019S or non-transgenic controls,
66 itron emission tomography (PET) using [(18)F]fallypride to determine the effects of the 8-week interv
67                    Specific binding of (18)F-fallypride to hD2R hMPCs was demonstrated in vitro and i
68 ron emission tomography was used with [(18)F]fallypride to measure BPND in a midbrain region, encompa
69 rmore, our findings support the use of (18)F-fallypride to measure extrastriatal dopamine release.
70 and positron emission tomography with [(18)F]fallypride to measure striatal dopamine D(2)/D(3) recept
71                           The ratio of (18)F-fallypride uptake in the pancreas to reference tissue (e
72                                       [(18)F]fallypride was used to measure D2/D3 baseline receptor a
73 s with amphetamine and the D2/D3 ligand [18F]fallypride, we found that higher levels of trait impulsi
74                        PET scans with [(18)F]fallypride were performed on these 2 days, and serum 17B