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1                                              IUdR and metabolites were measured in venous blood sampl
2                                             *IUdR can be prepared instantly, by either demercuration
3                           In addition, [123I]IUdR has a potential role in the scintigraphic detection
4     After locoregional administration, [123I]IUdR and [125I]IUdR localize within tumor, clear rapidly
5 ng [123I]IUdR and currently using both [123I]IUdR and [125I]IUdR.
6 e analog 5-[123I]iodo-2'-deoxyuridine ([123I]IUdR).
7 n emitters has antineoplastic effects ([123I]IUdR and [125I]IUdR) in addition to its scintigraphic po
8  with several concentrations of either [123I]IUdR or [125I]IUdR and their colony survival was measure
9                  The Do dose rates for [123I]IUdR and [125I]IUdR, respectively, are 18.78 and 1.88 in
10 after intra-arterial administration of [123I]IUdR in patients with liver metastases and intravesicula
11                The pharmacokinetics of [123I]IUdR locoregionally administered to a human glioma in si
12 dition to its scintigraphic potential ([123I]IUdR and [131I]IUdR), it holds promise for therapy and e
13 ith bladder carcinoma, initially using [123I]IUdR and currently using both [123I]IUdR and [125I]IUdR.
14 with a cystic glioma was injected with [123I]IUdR.
15 sibly by imaging later than 24 h after [124I]IUdR administration.
16 on of 28.0-64.4 MBq (0.76-1.74 mCi) of [124I]IUdR in 20 patients with brain tumors, including meningi
17                The plasma half-life of [124I]IUdR was short (2-3 min), and the arterial plasma input
18 lity of 5-[(125)I]iodo-2'-deoxyuridine ((125)IUdR)-labeled tumor cells to exert a damaging effect on
19 present within and/or released from the (125)IUdR-labeled cells.
20                                   Iodine-125-IUdR was infused intracerebrally over a 2-day period int
21 th the Auger electron emitter 123I or 125I (*IUdR).
22 ith the Auger electron emitter 123I or 125I, IUdR demonstrates therapeutic efficacy.
23 egional administration, [123I]IUdR and [125I]IUdR localize within tumor, clear rapidly from the rest
24 antineoplastic effects ([123I]IUdR and [125I]IUdR) in addition to its scintigraphic potential ([123I]
25   The Do dose rates for [123I]IUdR and [125I]IUdR, respectively, are 18.78 and 1.88 initial decays/ce
26 nd currently using both [123I]IUdR and [125I]IUdR.
27                       All patients had [125I]IUdR and [131I]IUdR uptake in tumor, with a biexponentia
28  patients were each infused with 5 mCi [125I]IUdR and 10 mCi [131I]IUdR through the sideport of a hep
29  tumor cell after an infusion of 5 mCi [125I]IUdR.
30 re treated for 5 days with 18.5 kBq/ml [125I]IUdR.
31          There is persistent uptake of [125I]IUdR in hepatic tumors, thereby making hepatic artery in
32 with which to quantify the fraction of [125I]IUdR incorporated within the DNA of tumor cells.
33 pigs after multiple administrations of [125I]IUdR into the aorta, carotid artery and bladder.
34 concentrations of either [123I]IUdR or [125I]IUdR and their colony survival was measured.
35                                   When [125I]IUdR is used as a therapeutic agent, we anticipate littl
36            Patients were injected with [125I]IUdR through the hepatic artery.
37                  After incubation with [125I]IUdR, selective eradication of HeLa cells from a co-cult
38 and grown for 7 days in medium without [125I]IUdR.
39                                   Iodine-131-IUdR was used as a tracer for imaging and quantitation.
40 UdR by demercuration whereby [123I/125I/131I]IUdR is synthesized virtually instantaneously following
41 cted therapeutic trial to evaluate[125I/131I]IUdR pharmacokinetics in liver metastases from colorecta
42        All patients had [125I]IUdR and [131I]IUdR uptake in tumor, with a biexponential clearance.
43 cintigraphic potential ([123I]IUdR and [131I]IUdR), it holds promise for therapy and early diagnosis
44 fused with 5 mCi [125I]IUdR and 10 mCi [131I]IUdR through the sideport of a hepatic artery pump.
45  tumor development (hyperplasia stage); (3) *IUdR was able to penetrate deep within the bladder wall;
46 from the tissue during the 24-h period after IUdR injection.
47 but with a range of a few cell diameters, an IUdR analogue labeled with 211At could markedly improve
48 caffeine enhanced IUdR-DNA incorporation and IUdR-mediated radiosensitization by partially inhibiting
49                                           As IUdR is rapidly dehalogenated by the liver, the intraven
50 e agents (IR, IUdR, and caffeine) as well as IUdR or caffeine combined with IR are less or equally ef
51 rtaken to determine the relationship between IUdR concentration and the duration of radiolabeled IUdR
52  the SUV and Tm:Br ratio values reflect both IUdR-DNA incorporated and exchangeable nonincorporated r
53 antigens but did not appear to be induced by IUdR treatment.
54  whereas SERV sequences were also induced by IUdR.
55 n), and rats bearing either bladder cancer (*IUdR by intravesical injection), brain gliosarcomas (int
56 dual mode of radiosensitization by combining IUdR and caffeine-like drugs (e.g., UCN-01) in p53-defic
57 rent cell cycle states and the corresponding IUdR-DNA incorporation at a particular time point.
58 he thymidine analogue 5-iodo-2'deoxyuridine (IUdR) is highly cytotoxic but only to cells going throug
59 peutic potential of 5-iodo-2'- deoxyuridine (IUdR) radiolabeled with the Auger electron emitters 123I
60 he thymidine analog, 5-iodo-2'-deoxyuridine (IUdR), is incorporated in the DNA of cells in the S phas
61 ine (AzaC) and with 5'-iodo-2'-deoxyuridine (IUdR); none was detected with sodium butyrate.
62 on of radiolabeled 5-iodo-2'- deoxyuridine (*IUdR) is accomplished by iododemetallation.
63              We found that caffeine enhanced IUdR-DNA incorporation and IUdR-mediated radiosensitizat
64                                Estimates for IUdR-DNA incorporation in tumor tissue (Ki) required pha
65                           The D(o) dose for *IUdR can be determined from survival curves versus the m
66 of silver grains (i.e., no DNA-incorporated *IUdR).
67 the cell cycle for the purpose of increasing IUdR-mediated radiosensitivity in MMR(-) cells.
68                                We instilled *IUdR for 2 hr directly within the bladder lumen of rats
69 ates the total transformation of iodide into IUdR with no detectable UV-absorbing by-products.
70                            Iododeoxyuridine (IUdR) uptake and retention was imaged by positron emissi
71 eases dramatically upon 5'-iododeoxyuridine (IUdR) treatment, (iv) lacZ expression is induced with th
72                          5-Iododeoxyuridine (IUdR) and caffeine are recognized as potential radiosens
73  colon cancer cells with 5-iododeoxyuridine (IUdR).
74  emphasis of radiolabeled iododeoxyuridine (*IUdR) research at our institution to date has been to as
75 genic survival, the three single agents (IR, IUdR, and caffeine) as well as IUdR or caffeine combined
76 ange Auger electrons emitted by 125I-labeled IUdR can cause double-strand breaks, delivering a lethal
77 ntration at 1/2 Vmax (K) is 3.717 x 10(-6) M IUdR.
78 n, an inhibition of uptake by 10 micrometers IUdR, and the incorporation of about 50% of cell-bound a
79 hat MMR(-) cells incorporate 25% to 42% more IUdR than MMR(+) cells, and that IUdR and ionizing radia
80 s of radiolabeled (125I) and nonradiolabeled IUdR and the mole rate of IUdR incorporation in double-s
81 al tissues by predicting the optimal dose of IUdR and optimal timing for IR treatment to increase the
82 rsus MMR(+) cells to describe the effects of IUdR incorporation upon the cell cycle for the purpose o
83                         The incorporation of IUdR into DNA of CHO cells, although the sum of a series
84 d in the bladder, there is little leakage of IUdR in the circulation.
85 ort the conditions for the radiosynthesis of IUdR by destannylation of the tributylstannyl precursor
86                          The maximum rate of IUdR incorporation (Vmax) is 4.424 x 10(-18) mol/min and
87 nd nonradiolabeled IUdR and the mole rate of IUdR incorporation in double-stranded DNA was measured.
88  by partially inhibiting repair (removal) of IUdR in DNA.
89 t MMR is involved in the repair (removal) of IUdR-DNA, principally the G:IU mispair.
90 m survival curves versus the mole amount of *IUdR incorporated in DNA.
91 arget cells incorporate a cytocidal dose of *IUdR.
92 be a kit formulation for the preparation of *IUdR by demercuration whereby [123I/125I/131I]IUdR is sy
93 er, ARG demonstrated that (1) the uptake of *IUdR was observed in the hyperplastic and carcinomatous
94        However, these effects of caffeine on IUdR-mediated radiosensitization were not found in p53-p
95      These models can be combined to predict IUdR-DNA incorporation at any time in the cell cycle.
96 ncentration and the duration of radiolabeled IUdR treatment required to incorporate the equivalent of
97 trated that the distribution of radiolabeled IUdR was mainly confined to the tumor (injection site),
98 to 42% more IUdR than MMR(+) cells, and that IUdR and ionizing radiation (IR) interact to produce up
99 tment it will be necessary to manipulate the IUdR delivery time, concentration and volume in a manner
100 e bearing an intraperitoneal ovarian tumor (*IUdR by intracavitary injection), and rats bearing eithe
101 cient cells, particularly when combined with IUdR.
102 d to the carcinogen but were instilled with *IUdR.
103 n cancer cell lines treated with and without IUdR.

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