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1 man BC specimens was compared using in vitro autoradiography.
2 9m)Tc-rhAnnexin V-128, or no radiotracer for autoradiography.
3 s (PSB1, PSB3) was determined using receptor autoradiography.
4 hAnnexin V-128) were determined with digital autoradiography.
5 CO) histochemistry analysis or [(3)H]proline autoradiography.
6 xtracts were tested for binding by ELISA and autoradiography.
7 PET/CT imaging, biodistribution studies, and autoradiography.
8 he activity distribution as determined using autoradiography.
9 lammation, shown on immunohistochemistry and autoradiography.
10 stribution of radionuclides visualized using autoradiography.
11 orated by ex vivo scintillation counting and autoradiography.
12 ed by an external optical imaging system and autoradiography.
13 in vivo small-animal PET imaging and ex vivo autoradiography.
14 ippocampus were confirmed by ex vivo PET and autoradiography.
15 ir and cold florbetapir compound and digital autoradiography.
16 ed in 18 mice using immunohistochemistry and autoradiography.
17 ere confirmed by ex vivo biodistribution and autoradiography.
18 mus and cortical regions of the pig brain by autoradiography.
19 tors by using quantitative in vitro receptor autoradiography.
20 vestigated in vivo with PET and ex vivo with autoradiography.
21 s performed using high-resolution (3)H-DPCPX autoradiography.
22 ured in the striatum using in vitro receptor autoradiography.
23 3.8 +/- 0.8 vs. 10.3 +/- 2.3, P < 0.01), and autoradiography.
24 was detected by phosphoprotein staining and autoradiography.
25 e same states as reported by 2-deoxy-glucose autoradiography.
26 orated by ex vivo scintillation counting and autoradiography.
27 stribution of (18)F-LMI1195 was evaluated by autoradiography.
28 assessed ex vivo by immunohistochemistry and autoradiography.
29 hin the lymph nodes was studied with digital autoradiography.
30 hrome oxidase (CO) and CTB-Au, or dipped for autoradiography.
31 level correlated well with tracer uptake on autoradiography.
32 bridizations as well as dopamine transporter autoradiography.
33 icantly correlated with uptake quantified by autoradiography.
34 aging with a small-animal PET/CT scanner and autoradiography.
35 distribution and clearance were assessed by autoradiography.
36 o by immunohistochemistry, Western blot, and autoradiography.
37 calization of FDG was determined directly by autoradiography.
38 ive positron emission tomography and ex vivo autoradiography.
39 e at 24 h on small-animal PET/CT imaging and autoradiography.
40 was detected with (64)Cu-DOTA-ECL1i by using autoradiography.
41 Additionally, we performed postmortem autoradiography.
42 anges in biodistribution were assessed using autoradiography.
43 n with M-CSF or GM-CSF by using quantitative autoradiography.
44 B cells or were further analyzed via digital autoradiography.
45 (0.41+/-0.04 versus 0.73+/-0.1, P=0.014) and autoradiography (1.1+/-0.3 versus 2.8+/-0.2 P=0.001).
46 by qRT-PCR, in situ hybridization, receptor autoradiography ([(125)I]OVTA binding), and immunohistoc
47 ro testing via competition binding assay and autoradiography, [(18)F]PF-NB1 emerged as the best perfo
48 ontrast to nearby regions equaling that from autoradiography; a lower contrast was found using the co
49 tu hybridization, Western blotting and GTPgS autoradiography an upregulation of expression and the fu
53 rated for [(125)I]11d and [(11)C]11e through autoradiography and biodistribution studies, imaging of
55 PR and SSTR2 expression analyzed by in vitro autoradiography and by quantitative reverse transcriptas
56 ter injection was also evaluated via ex vivo autoradiography and compared with amyloid-beta plaque de
57 was validated ex vivo by gamma-counting and autoradiography and compared with cleaved caspase-3 (CC3
58 as quantified on arterial cryosections using autoradiography and compared with CXCR4 and RAM-11 (macr
59 luated for tracer distribution using digital autoradiography and compared with histologic markers of
60 clinical breast cancer specimens by in vitro autoradiography and correlated this with corresponding m
62 and evaluated for (18)F-EF5 distribution by autoradiography and EF5 binding by immunohistochemistry.
64 mall-animal PET imaging and combined ex vivo autoradiography and fluorescence immunohistochemistry.
69 (111)In-cetuximab-F(ab')(2) was evaluated by autoradiography and histologic markers evaluated by immu
73 ligands, PBB3 and AV-1451, by fluorescence, autoradiography and homogenate binding assays with homol
86 r 15- to 16-mo-old mice correlated well with autoradiography and immunostaining (i.e., increased (18)
87 ley rats using western blotting, [(3)H]UCB-J autoradiography and immunostaining with confocal microsc
88 in slices of Sprague-Dawley rats by in vitro autoradiography and in living rats by in vivo small-anim
89 [(18)F]3 to CB2 was demonstrated by in vitro autoradiography and in vivo PET experiments using the CB
90 take were compared ex vivo using dual-tracer autoradiography and in vivo using PET in different xenog
92 86192 was evaluated in tumors using in vitro autoradiography and PET with mice bearing bilateral PD-L
93 biodistribution was investigated by in vitro autoradiography and positron emission tomography (PET) i
94 sities as determined by human tissue section autoradiography and preclinical in vivo PET studies in t
95 termined in cynomolgus monkeys by whole-body autoradiography and radioanalysis of ocular tissues.
96 in brains of untreated mice was analyzed by autoradiography and saturation analysis using [(3)H]-ABP
98 then sliced, and the slices were imaged with autoradiography and stained with hematoxylin and eosin.
100 ively accurate and spatially concordant with autoradiography and the small-animal PET examination.
103 protein synthesis inhibition as measured by autoradiography and was also observed with cycloheximide
104 action for inflammatory markers, 3) receptor autoradiography, and 4) transcriptome analysis in the hi
105 radiography, [F-18]-AV-1451 nuclear emulsion autoradiography, and [H-3]-AV-1451 in vitro binding assa
106 periments with rat brain membranes, in vitro autoradiography, and blocking and displacement experimen
110 stigations were followed by biodistribution, autoradiography, and fluorescence-activated cell sorting
112 earts, by Pro-Q-Diamond/Sypro-Ruby staining, autoradiography, and immunoblotting using phosphoserine-
113 ce were analyzed with (18)F-FAC PET, digital autoradiography, and immunohistochemistry, and deoxyribo
115 ll-binding experiments using flow cytometry, autoradiography, and internalization assays with various
119 11)C with positron emission tomography, root autoradiography, and radiometabolite flux analysis to un
121 terogeneity of RP782 uptake was confirmed by autoradiography, and specificity was demonstrated using
122 y-derived indices correlated poorly with the autoradiography- and PET-derived ones (R = 0.06-0.54).
123 explained with PSMA expression levels using autoradiography (ARG) and immunohistochemistry (IHC).
125 ound 1, which exhibited target engagement in autoradiography (ARG) studies in brain slices from HD mo
131 cryosections of the brains were evaluated by autoradiography, by histology, and for EBD fluorescence
133 ceptors using quantitative in vitro receptor autoradiography combined with a detailed analysis of the
139 (111)In-cetuximab-F(ab')(2) as determined by autoradiography correlated well with the distribution of
140 ce in (18)F-PBR06 uptake in these mice using autoradiography (cortex/striatum: 1.13 +/- 0.04 vs. 0.96
141 nd in the absence of motion, one can achieve autoradiography, CT, and PET image registration with spa
149 ed indices correlated significantly with the autoradiography-derived ones (R = 0.57-0.85), but the va
150 rly gene expression and (14)C 2-deoxyglucose autoradiography during mother-to-infant fear transmissio
151 l CB2 attributes as demonstrated by in vitro autoradiography, ex vivo biodistribution, and positron e
154 and in vivo (small-animal PET/CT imaging and autoradiography) experiments in the presence of succinat
156 We applied [F-18]-AV-1451 phosphor screen autoradiography, [F-18]-AV-1451 nuclear emulsion autorad
158 Activity concentrations were obtained using autoradiography for 20 specimens extracted with 18- and
159 on specific brain structures using receptor autoradiography, found that the desensitization treatmen
160 )F-FTC-146 in rats were assessed via PET/CT, autoradiography, gamma counting, and high-performance li
164 vo retention of [F-18]-AV-1451 and performed autoradiography, [H-3]-AV-1451 binding assays, and quant
166 scanner correlated with results obtained by autoradiography, histologic evaluation, and polymerase c
167 the PET/CT scan, animals were sacrificed for autoradiography, histologic work-up, or RNA expression a
169 ET/CT, tumors were cut into cryosections for autoradiography, histology, and immunohistochemistry.
172 of tumors and lymph nodes was performed via autoradiography, histopathology, and immunohistochemistr
173 d tomography/computed tomography imaging and autoradiography illustrated spatial distribution within
175 m was clearly visualized in PET and in vitro autoradiography images of control animals and was no lon
182 specimens including radioactivity counting, autoradiography, immunohistochemistry, and antigen densi
184 on tomographic imaging as well as postmortem autoradiography in an independent sample with Parkinson
185 d specificity were evaluated by quantitative autoradiography in apolipoprotein E-deficient (apoE(-/-)
186 labeled recombinant human LCN2 (rh-LCN2) and autoradiography in baboon, macaque, and human brain sect
189 opharmacologic evaluations included in vitro autoradiography in rat brain and PET scans on anesthetiz
194 l animal positron emission tomography (PET), autoradiography, microdialysis and molecular biology in
195 s evaluated for CCR2 with immunostaining and autoradiography (n = 6, COPD) with (64)Cu-DOTA-ECL1i.
197 Binding characteristics were determined by autoradiography of AD brain sections in vitro and using
199 oal was to develop a method for quantitative autoradiography of biopsy specimens (QABS), to use this
204 on preclinical work, on quantitative in vivo autoradiography of human tumor slices, and on human data
206 These findings were verified directly by autoradiography of normal and atherosclerotic arteries.
209 Similar results were obtained from ex vivo autoradiography of the ipsilateral versus contralateral
212 ptor (alpha2A-AR) expression was assessed by autoradiography on brain slices, and Galphai proteins ex
213 and selectivity for the GRPR during receptor autoradiography on human cancer samples (IC(50) in nM: G
214 n of 50% (IC50) values were determined using autoradiography on human tissues with (125)I-GLP-1(7-36)
216 binding measures with postmortem human brain autoradiography outcomes showed a high correlation for t
219 validated in rodents using in vitro/ex vivo autoradiography, PET experiments, and dose-response stud
220 and was evaluated in Wistar rats by in vitro autoradiography, PET imaging, ex vivo biodistribution, m
221 istribution over time using a combination of autoradiography, positron emission tomography (PET)/comp
224 small-animal PET were highly correlated with autoradiography (r > 0.99) and with each other (r = 0.97
226 either of the in vitro methods, and digital autoradiography resulted in the highest measurements.
230 wed by quantitative electron microscopy (EM) autoradiography revealed abundant viral RNA synthesis as
232 t analysis of in vivo and ex vivo images and autoradiography revealed significantly higher Tc-99m-HL9
234 ing for fibrillary beta-amyloid, and ex vivo autoradiography served as terminal gold standard assessm
240 take could be observed on PET scans, whereas autoradiography showed slight radiotracer accumulation i
244 g using a silicon-strip detector for digital autoradiography, staining for histologic characterizatio
245 ich correlated well with biodistribution and autoradiography studies (i.e., much higher tracer uptake
247 ific binding of [3H]CUMI-101 by quantitative autoradiography studies in postmortem baboon and human b
248 -9 with AD brain tissue sections and ex vivo autoradiography studies in transgenic mouse brain sectio
250 sitron emission tomography (PET) and ex vivo autoradiography studies of [(18)F]13 in mice showed high
255 n identified as a promising I(2) ligand from autoradiography studies, displaying high affinity and go
260 human hearts were compared using radiocaine autoradiography to determine that the failing heart has
263 vestigated in competition binding assays and autoradiography using a fresh cardiac thrombus from an e
264 ted by saturation binding assay and in vitro autoradiography using post-mortem Alzheimer's disease br
265 25)I-pentixafor uptake in the vessel wall on autoradiographies was located in macrophage-rich regions
269 stologic samples were available; (68)Ga-PSMA autoradiography was performed on an exemplary case of PE
274 define CGRP receptor binding sites, in vitro autoradiography was performed with [(3)H]MK-3207 (a CGRP
278 the method of in vitro quantitative receptor autoradiography, we demonstrated that-for instance, in n
282 stimulated [(35)S]GTPgammaS and [(3)H]ligand autoradiography were assessed by statistical parametric
285 Fluorescence microscopy, histopathology, and autoradiography were performed on representative section
290 stribution studies, and small-animal PET and autoradiography were used to determine the uptake of (64
291 Immunofluorescence, immunohistochemistry and autoradiography were utilized to examine the tumor vascu
292 tumor was assessed using PET/CT imaging and autoradiography, whereas TAM burden was determined using
294 hods: For the in vitro portion of the study, autoradiography with (18)F-DPA714 and (11)C-JNJ717 was p
297 ion, we used in vivo PET imaging and ex vivo autoradiography with Pittsburgh compound B ((11)C-PIB) a
299 n with ER expression was studied by in vitro autoradiography with the GRP-R agonist (111)In-AMBA.
300 wed colocalization of tracer accumulation on autoradiography, with insulin-positive cells and GLP-1R