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1 t 60 mg/m(2) (designated as the biologically effective dose).
2 T to estimate whole-body radiation exposure (effective dose).
3 ever, 11 induces hypertriglyceridemia at its effective dose.
4  at most 4% in both organ-absorbed doses and effective dose.
5 ng a reduction of the chemotherapeutic agent effective dose.
6 docetaxel, allowing a four-fold reduction in effective dose.
7 ses the focus should be on using the minimum effective dose.
8 ing technical dose descriptors and estimated effective dose.
9  should continue to receive it in the lowest effective dose.
10  with titrating controllers to the minimally effective dose.
11 n in the liver and derivation of the optimal effective dose.
12 or contrast-to-noise ratio (CNR); noise; and effective dose.
13  imaging accounted for 74% of the cumulative effective dose.
14  MBq for (64)CuCl2 translated into a 5.7-mSv effective dose.
15 e liver and bone marrow doses as well as the effective dose.
16 weighting factors were used to calculate the effective dose.
17 ithout significant normal tissue toxicity at effective doses.
18 in mice with no apparent side effects at the effective doses.
19  cells would decrease systemic toxicities at effective doses.
20 ite patients had higher cumulative estimated effective doses.
21  twice daily, which were earlier shown to be effective doses.
22 atients, although little data exist to guide effective dosing.
23 lees, with a doubling in the mean per capita effective dose (1.2 mSv vs 2.3 mSv) and the proportion o
24 al dose-length product (DLP) was 746 mGy cm (effective dose, 11.2 mSv), with a range of 307-1497 mGy
25 P of 200 mGy cm or lower (a "reduced dose") (effective dose, 3 mSv), and only 10% of institutions kep
26  11.2 mSv), with a range of 307-1497 mGy cm (effective dose, 4.6-22.5 mSv) for mean DLPs.
27           Radiation dosimetry was favorable (effective dose, 5.2 muSv/MBq).
28 al neovascularization, with 200 mug the most effective dose (59% inhibition).
29  10% of institutions kept DLP at 400 mGy cm (effective dose, 6 mSv) or less in at least 50% of patien
30 mum inhibitory concentration and the in vivo effective dose 99 in mice.
31                            The wide range of effective dose, a broad treatment window and long-lastin
32                                     The mean effective doses (all subjects, men and women) were 34.1
33 ex (CTDIvol), dose-length product (DLP), and effective dose, along with the interquartile range (IQR)
34 e doses reduced to 15 +/- 1 muSv/MBq for the effective dose and 103 +/- 4 muGy/MBq for the absorbed d
35                              Both whole-body effective dose and bladder dose can be reduced by more f
36                              Determining the effective dose and combination of interventions for spec
37 IPV shows promise as a means to decrease the effective dose and cost of IPV, but prior studies, all u
38  by the absence of studies defining the most effective dose and dose-response latency for targeting t
39 indings provide initial evidence of the most effective dose and dose-test interval for future experim
40                                     Maternal effective dose and embryo/fetal dose from 256-slice CTPA
41             Organ dose was used to calculate effective dose and risk index (an index of total cancer
42                      When normalized by DLP, effective dose and risk index were independent of collim
43                                     Both the effective dose and the bladder dose can be reduced by fr
44                              PDD reduced the effective dose and toxicity of LAmB and resulted in elic
45 es the antidepressant action at behaviorally effective doses and suggest that the rapid change in cyc
46 on on the potential source of dermal NO, the effective doses and wavelengths, the responsiveness of d
47 rmine the maximum tolerated and biologically effective dose, and identify the recommended phase 2 dos
48     The resulting ventralized phenotype, the effective dose, and the NiCl(2) sensitive response perio
49                   Rates of CT use, organ and effective doses, and projected lifetime attributable ris
50                    Distributions for DLP and effective dose are reported for single-phase examination
51                  Measured absorbed doses and effective doses are comparable to other previously repor
52                        Uncertainty values of effective doses are lower in comparison to absorbed dose
53                                        These effective doses are somewhat higher than earlier publish
54 performed in 69 patients, for whom radiation effective dose averaged 0.99 mSv and study duration, 117
55                                     The mean effective dose averaged over both men and women (+/- SD)
56                                     The mean effective dose averaged over both men and women was esti
57            The effective dose equivalent and effective dose averages were lower in adolescents than y
58                                          The effective dose based on 150 MBq of (68)Ga-pentixafor was
59                               The calculated effective dose, based on extrapolation of mouse data, wa
60 on of the AAs and calculating tumor biologic effective dose (BED) along the normal-organ MTBED limits
61 ntitumor biologic effects using biologically effective dose (BED) and equivalent uniform dose (EUD) w
62 , liver, spleen, and red marrow biologically effective doses (BEDs) for a maximal kidney BED (20 Gy2.
63                             The Biologically Effective Doses (BEDs) of nanoparticles, the dose entity
64 nt patient resulted in a 30% higher maternal effective dose but a 3.4-6 times lower embryo/fetal dose
65                                     The mean effective dose calculated during stress was not signific
66  values showed a deviation comparable to the effective dose calculated in this study.
67         Absorbed dose to the bladder and the effective dose can be reduced significantly by frequent
68                                          The effective dose can be reduced to 4.5 +/- 0.30 mSv (at 30
69                                  The average effective dose coefficient was 5.1 mSv.
70                            However, maternal effective dose considerably increased with body size, wh
71 by multiplying the dose-length product by an effective dose conversion factor of 0.014 mSv/mGy cm and
72 The prospects of achieving a submillisievert effective dose CT examination routinely are assessed.
73 eau were measured and used for a qualitative effective dose curve comparison with proton and carbon-i
74  distribution, and elimination), whereas the effective dose delivered is dependent on the delivery sy
75 he liver results in highly variable biologic effective doses depending on the modality used: a biolog
76 ctor row volume scanner and evaluate how the effective dose depends on scan mode and the calculation
77                      The estimated radiation effective dose determined from whole-body studies was 0.
78                                              Effective dose, determined by using International Commis
79                          The estimated human effective dose due to (124)I-BTT-1023 was 0.55 mSv/MBq,
80                                The committed effective doses due to (210)Po from ingestion of honey f
81 se per slice, dose-length product (DLP), and effective dose (E).
82 ells was activated by dopamine with a median effective dose (EC50 ) of 1.34 muM.
83 d to determine the organ doses (ODs) and the effective dose (ED) to humans.
84  quality, coronary segment interpretability, effective dose (ED), and diagnostic accuracy were assess
85 over the parent design in vivo with a median effective dose (ED50) of 1 mg/kg following a single dose
86 g efficiency in excess of 90%, with a median effective dose (ED50) of 1.5nM, whereas the maximum gene
87                                          The effective dose equivalent and effective dose averages we
88 ection of 555 MBq (15 mCi) will result in an effective dose equivalent of 5.9 mSv (0.59 rem) and a lu
89 (51)Mn in an adult human male would yield an effective dose equivalent of approximately 13.5 mSv, rou
90                                       Median effective dose equivalent of inhalational anesthetics du
91 ) (median [interquartile range])-fold median effective dose equivalent versus 0.57 (0.45-0.64)-fold m
92                                          The effective dose equivalent was 0.0106 mSv/MBq (0.0392 rem
93  and female phantoms, respectively), and the effective dose equivalent was 6.9 +/- 0.6 and 8.7 +/- 0.
94 uivalent versus 0.57 (0.45-0.64)-fold median effective dose equivalent was associated with lower odds
95                                 A whole-body effective dose estimate of 0.003 mSv/MBq was observed.
96 owed a favorable radiation dosimetry with an effective dose estimate of 0.0045 mSv/MBq, resulting in
97  scans can be reduced to 3 without affecting effective dose estimates.
98 timation, doses to patients are converted to effective doses, even though the International Commissio
99                                          The effective dose for (11)C-laniquidar was 4.76 +/- 0.13 an
100                                     The mean effective dose for (11)C-MK-8278 was 5.4 +/- 1.1 muSv/MB
101                                     The mean effective dose for (11)C-nicotine was 5.44 +/- 0.67 muSv
102 s depending on the modality used: a biologic effective dose for 50% (BED50) of 115, 93, and 250 Gy fo
103                      Treatment by MEAN at an effective dose for 6 wk was well tolerated by animals.
104 e to model the equivalent organ dose and the effective dose for a 70-kg man.
105                                          The effective dose for a proposed single injection of 500 MB
106                                          The effective dose for a typical 100-MBq administration of (
107                                          The effective dose for a typical 200-MBq administration of (
108  dose index volume, dose-length product, and effective dose for ASiR CT (3.0 +/- 2.0 mGy, 148 +/- 85
109 ow as 1.8 mSv, substantially underestimating effective dose for both volume and helical coronary CT a
110                                  The average effective dose for coronary CTA was calculated as 1.11 m
111 ological Protection warns against the use of effective dose for epidemiologic studies or for estimati
112  unit exposure (0.04% versus 0.02% per 1-mSv effective dose for females versus males, respectively; P
113                                          The effective dose for humans estimated from the baseline sc
114 c changes of the maternal body increases the effective dose for some radiotracers.
115                                   The median effective dose for the investigative protocol was 0.04 m
116 )Rb, (86)Y, and (124)I) and the absorbed and effective doses for 21 positron-emitting labeled radiotr
117 lating the uncertainty of absorbed doses and effective doses for 7 radiopharmaceuticals.
118 rolled cortical impact injury, we determined effective doses for candesartan and telmisartan, their t
119 s lead to substantial radiation exposure and effective doses for many patients in the U.S.
120                                       Median effective doses for single-phase, multiphase, and all ex
121                                          The effective doses for the standard male and female phantom
122                                          The effective dose from (137)Cs and (134)Cs (radiocesium) ir
123 he normal-organ radiation-absorbed doses and effective dose from (18)F-CP-18.
124 rom 10 to 200 pmol drastically decreased the effective dose from 0.0908 to 0.0184 mSv/MBq and decreas
125 conversion coefficients are used to estimate effective dose from DLP, they should be appropriate for
126 010 an average herder received an integrated effective dose from incorporated (137)Cs of about 18 mSv
127                                          The effective dose from PET/CTE was 17.7 mSv for the first 4
128 to identify the steps required to reduce the effective dose from routine CT examinations to less than
129 HU), this protocol significantly reduced the effective dose (from 18.5 to 5.1 mSv; P < .001).
130                                          The effective dose, from (210)Po ingested by total diet, acc
131                          However, a protocol effective dose &gt;20 mSv was proposed as a level requiring
132 apies, yet prominent side effects of BETi at effective doses have been reported in phase I clinical t
133 sociated with notable toxicity at clinically effective doses, highlighting the need for better unders
134           Volume CT dose index (CTDIvol) and effective dose in 274 124 head, chest, and abdominal CT
135                                          The effective dose in humans is low and similar to that of o
136 inhibitory concentration and the in vivo 99% effective dose in mice, establishing in vitro and in viv
137 rability and therefore the ability to attain effective doses in some patients.
138                                      The 90% effective doses in the in vivo efficacy models were 3.7
139 e associated with side effects that preclude effective dosing in many patients [8].
140 namic analyses to determine the biologically effective dose included all patients for whom samples we
141                                       Annual effective doses increased with age and were generally hi
142                 Biodistribution and measured effective dose indicate that (11)C-laniquidar is a safe
143 s indicated its lower cytotoxicity and lower effective dose inducing maximal reactivation, might be a
144 t, albeit with 4-fold potency reduction (the effective dose inhibiting 50% of the Ang II-induced maxi
145 l to one where using the smallest clinically effective dose is best.
146                                The (64)CuCl2 effective dose is like those of other established PET tr
147                           In particular, the effective dose is not appreciably different from those o
148 e therapy in kidney transplant recipients is effective, dosing is conventionally adjusted empirically
149    Although method B increases the amount of effective dose, it provides high diagnostic quality imag
150 sure was defined as those procedures with an effective dose &lt;/=1 mSv.
151                     An imaging protocol with effective dose &lt;/=3 mSv is considered very low risk, not
152 -based annual rates of radiation exposure to effective doses &lt; or =3 mSv/year (background level of ra
153 nteractions were found between assignment to effective dose medication and publication year (t260=-5.
154 9, r=0.52, P=.001), while the mean change in effective dose medication arms decreased significantly (
155    SB-710622 and GSK931145 had lower minimum effective doses (MEDs) in the MEST test than other GlyT1
156  the normal-organ maximum-tolerated biologic effective doses (MTBEDs) arising from the combined radio
157                                              Effective dose normalized by tube current-time product o
158 annual population-based rate of receiving an effective dose of >3 to 20 mSv/year was 89.0 per 1,000;
159 dose (+/-SD) was 4.5 +/- 0.5 muSv.MBq(-1)The effective dose of (11)C-GMOM is at the lower end of the
160                                     The mean effective dose of (18)F-FPPRGD2 was 0.1462 rem/mCi +/- 0
161 lin sensitivity in DIO mice with a minimally effective dose of 0.01 mg/kg.
162  exposure (inhalation) that would lead to an effective dose of 0.1 Sv in the first year.
163  Injection of (111)In-ABY-025 yielded a mean effective dose of 0.15 mSv/MBq and was safe, well tolera
164 r, kidney, and marrow, respectively, with an effective dose of 0.41 mSv/MBq (1.5 rem/mCi).
165 all (1.22 +/- 0.16 mGy/MBq), with an average effective dose of 0.54 +/- 0.07 mSv/MBq.
166 6-slice CTPA exposure resulted in a maternal effective dose of 1 mSv and an embryo/fetal dose of 0.05
167 r wall, with a dose of 95.3 muGy/MBq, and an effective dose of 15.9 muSv/MBq was calculated.
168                                           An effective dose of 20 mSv or higher was delivered by 14%
169 of 150 MBq of (68)Ga-PSMA I&T resulted in an effective dose of 3.0 mSv.
170  x 1,480 MBq (80 mCi) would result in a mean effective dose of 3.7 mSv using the weighting factors of
171         The total examination had an average effective dose of 5.0 mSv.
172  exposure: median total fluoroscopy time and effective dose of 6.08 (1.51-12.36) minutes and 2.15 (0.
173 lculated radiation dose estimates yielded an effective dose of 6.3 mSv for an injected activity of 20
174 0-MBq injection of BAY 86-7548 results in an effective dose of 7.7 mSv, which could be reduced to 5.7
175 not reduced by administration of a maximally effective dose of a TRPV1 antagonist.
176 postinfection viral loads and/or a partially effective dose of a vaginal microbicide aimed at blockin
177 ses between 0.008 and 0.015 mSv/MBq, with an effective dose of approximately 0.014 mSv/MBq.
178  2013, would have received a total committed effective dose of approximately 0.95 mSv a(-1) from comb
179 d activity of 400 MBq corresponds to a total effective dose of approximately 1.5 mSv.
180 omes containing H-ferritin siRNA reduced the effective dose of BCNU needed for tumor suppression by m
181                          Identifying a lower effective dose of bevacizumab may reduce the risk for ne
182       Intra-Str injections of a behaviorally effective dose of DA precursor l-3,4-dihydroxyphenylalan
183 rate, which determines both the duration and effective dose of factor release.
184                               A behaviorally effective dose of garcinol (10 mug/side) also significan
185 trast, ascorbate supplementation lowered the effective dose of JQ1 needed to successfully inhibit mel
186              The dosimetry study provided an effective dose of less than 0.30 mSv/MBq, with the gallb
187 he pain and inhibited CPP induced both by an effective dose of morphine and by a sub-threshold dose o
188  and heart function were not observed at the effective dose of naproxcinod.
189                                              Effective dose of Pu were calculated using the data of P
190                  We evaluated the cumulative effective dose of radiation from all radiation examinati
191  molecules and, as a consequence, lowers the effective dose of SSRIs.
192 gy should also contribute to determining the effective dose of tea polyphenols in achieving better bo
193                               The mean daily effective dose of terlipressin was lower in the TERLI-IN
194 utic doxorubicin reduces the therapeutically effective dose of the drug by more than an order of magn
195                                          The effective dose of the PET scan was estimated by multiply
196 ) groups, and then tested for behavior under effective doses of 5-HT1A receptor agonist 8-hydroxy-N,
197     Radiation dosimetry was acceptable, with effective doses of 9.5 muSv/MBq (intravenous administrat
198                                  Because the effective doses of aspirin are consistent with the inhib
199 turer communities toward routinely achieving effective doses of less than 1 mSv, which is well below
200  caspase activation in response to maximally effective doses of paclitaxel, a PLK1 inhibitor, or cisp
201               We estimated 3-year cumulative effective doses of radiation in millisieverts from these
202 onizing radiation, but their contribution to effective doses of radiation in the general population i
203 th doses equivalent to approximately 100 50% effective doses of Yersinia pestis strain CO92 and necro
204  improve patient outcomes by increasing the "effective dose" of HSCs.
205 diac imaging procedures, the mean cumulative effective dose over 3 years was 23.1 mSv (range 1.5 to 5
206                               The calculated effective dose over all subjects (mean +/- SD) was 0.029
207 nt of ABSSSIs at the 200-mg dose, the lowest effective dose, over a mean of 6.4 days of therapy.
208 r SNR and CNR (both P < .05), and compatible effective dose (P > .05).
209                                     The mean effective dose per patient was 0.9 mSv/MBq (SD, 0.3 mSv/
210  CT by using the standard protocol with mean effective dose per series of 3.06 mSv (range, 1.4-7.7 mS
211                                              Effective doses predicted for LDCT may exceed those used
212      Florbetapir F 18 appears to have a wide effective dose range and a high test-retest reliability
213 objectives of this study were to examine the effective dose range and the test-retest reliability of
214 hievable in patients and provide a plausibly effective dose range for initial phase 2 clinical studie
215  the doses tested were on the low end of the effective dose range, consistent with clinical data repo
216                    This mechanism shifts the effective dose response of the cytokine so that the pote
217                                   The median effective dose (+/-SD) of DOTA-conatumumab and conatumum
218                                          The effective dose (+/-SD) was 4.5 +/- 0.5 muSv.MBq(-1)The e
219                                     The mean effective dose (+/-SD) was estimated to be 4.6 +/- 0.3 m
220 cts are dose related; therefore, the minimum effective dose should be used.
221                Ranolazine at therapeutically effective dose significantly recruited muscle microvascu
222 ns were then performed to identify minimally effective dosing strategies to protect lower female geni
223 eroids should always aim to reach the lowest effective dose that gives the patient good asthma contro
224 ent toxicity, such that at a therapeutically effective dose there were no pathologic changes in the g
225                                At clinically effective doses, these agents produce extensive blockade
226  the specific absorbed dose (or biologically effective dose), they may also be related to discrete tu
227                   Here, we characterized the effective dose, timing, and proximity of saliva and SGE
228 y/MBq (0.473 rad/mCi), respectively, and the effective dose to 0.0149 mSv/MBq (0.0551 rem/mCi) or 0.0
229         For monkey biodistribution data, the effective dose to humans would be 22.2 +/- 2.4 mSv for t
230                The average medical radiation effective dose to the U.S. population in 2006 was estima
231 re determined from time-activity curves, and effective doses to individual organs and the whole body
232                                The committed effective doses to individuals of three population group
233  measure the radiation dose and estimate the effective doses to pediatric patients during CT for ches
234                                     The mean effective doses under stress were 1.14 +/- 0.10 and 1.28
235 ollected and fitted, and the AD and biologic effective dose values to the aortic wall and tumors were
236 es ranged from 1003.7 to 1192.5 mGy, and the effective dose varied from 2.4 to 3.7 mSv.
237                                              Effective doses varied from 0.03 to 69.2 mSv per scan.
238                                          The effective dose was 0.015 mSv/MBq, leading to a radiation
239                                          The effective dose was 0.0165 mSv/MBq.
240                                 The measured effective dose was 0.017 mSv/MBq, with the urinary bladd
241                                     The mean effective dose was 0.019 mSv/MBq (0.072 rem/mCi).
242 e whole-body dose was 0.015 mGy/MBq, and the effective dose was 0.020 mSv/MBq.
243                                    The total effective dose was 0.021 +/- 0.003 mSv/MBq for both trac
244                                          The effective dose was 0.021 mSv/MBq for males and 0.027 mSv
245 dy dose was 0.011 +/- 0.011 mGy/MBq, and the effective dose was 0.023 +/- 0.012 mSv/MBq.
246                                          The effective dose was 0.025 mSv/MBq (0.0922 rem/mCi).
247                                     The mean effective dose was 0.026 +/- 0.0012 mSv/MBq.
248                                        Total effective dose was 0.030 +/- 0.003 mSv/MBq for LD and 0.
249                               The calculated effective dose was 0.032 +/- 0.0034 mSv/MBq.
250                                          The effective dose was 0.0326 +/- 0.0018 mSv/MBq.
251                                The estimated effective dose was 0.035 mSv/MBq.
252                                          The effective dose was 0.043 mSv/MBq, resulting in an averag
253                                     The mean effective dose was 0.051 mSv/MBq.
254                                     The mean effective dose was 1.02 mSv +/- 0.51.
255 ients (38.6%), for whom cumulative estimated effective dose was 121 mSv (IQR, 81-189; mean, 149 mSv).
256 n the bladder wall (32.4), and the resultant effective dose was 19.9 +/- 1.34 muSv/MBq (mean +/- SD).
257                                     The mean effective dose was 2.07E-02 mSv/MBq.
258                               The calculated effective dose was 2.4E-02 +/- 0.2E-02 mSv/MBq, correspo
259                    Overall median cumulative effective dose was 2.7 mSv (range, 0.1-76.9 mSv), and th
260                                The resultant effective dose was 28.79 muGy/MBq (0.107 rem/mCi).
261 r human biodistribution data, the calculated effective dose was 31 +/- 1 muSv/MBq, and the urinary bl
262                               The calculated effective dose was 38 +/- 4 muSv/MBq, with the urinary b
263                                         Mean effective dose was 4.3 +/- 0.3 mSv/patient (range, 3.7-4
264 st radiation exposure (21 muSv/MBq), and the effective dose was 4.3 muSv/MBq.
265                                     The mean effective dose was 75% and 108% higher (0.92 mSv +/- 0.3
266  Similar to other (18)F-labeled ligands, the effective dose was about 23 muSv/MBq.
267           The estimated whole-body radiation effective dose was approximately 0.023 mSv/MBq.
268                                    Radiation effective dose was calculated from administered and resi
269 g examinations was tabulated, and cumulative effective dose was calculated in millisieverts.
270                                     The mean effective dose was calculated using the male and female
271 e individual and mean organ residence times; effective dose was calculated with OLINDA 1.1.
272                                              Effective dose was calculated.
273                            The (18)F-MNI-659 effective dose was estimated at 0.024 mSv/MBq.
274 bsorbed body dose was low (<7 muSv/MBq); the effective dose was estimated at 17 muSv/MBq.
275                                          The effective dose was estimated at 6.9 mSv for a 370-MBq (1
276                                          The effective dose was estimated to be 0.017 mSv/MBq.
277                                     The mean effective dose was estimated to be 4.5 +/- 0.3 muSv/MBq
278  for the dosimetry calculation, and the mean effective dose was estimated to be 5.2 +/- 0.2 muSv/MBq
279           For 99.815% 100Mo, the increase in effective dose was less than 2% at 6 h after the EOB and
280                                     Results: Effective dose was reduced by up to 91% with volume scan
281 s reduced to 0.10 +/- 0.012 mSv/MBq, and the effective dose was reduced to 0.015 +/- 0.0010 mSv/MBq.
282                                              Effective dose was significantly reduced with protocol B
283                                          The effective dose was, 2.05, 1.8, 1.08 mSv for brain, abdom
284              The average radiation exposure (effective dose) was approximately 0.021 mSv/MBq.
285  BW, CT dose index, dose-length product, and effective dose were analyzed.
286  dose index volume, dose-length product, and effective dose were compared.
287                           The whole-body and effective doses were 0.012 mGy/MBq and 0.016 mSv/MBq, re
288                                         Mean effective doses were 1.11 +/- 0.22 and 1.26 +/- 0.20 muS
289                                              Effective doses were 3.41 +/- 0.06 muSv/MBq for (11)C-el
290                                              Effective doses were above 1 mSv y(-1) in the CEZ, but m
291                Mean organ-absorbed doses and effective doses were calculated using OLINDA/EXM.
292                Mean organ-absorbed doses and effective doses were calculated via quantitative image a
293  and the uncertainties of absorbed doses and effective doses were calculated.
294                                              Effective doses were compared with estimates based on th
295                                    Organ and effective doses were determined for six scan modes, incl
296                                   Estimating effective dose with a chest conversion coefficient resul
297 ur dosimetric analysis demonstrated a (64)Cu effective dose within the acceptable range for clinical
298 nergic drug combinations at their respective effective doses without unwanted accumulative side effec
299  a typical injected activity of 555 MBq, the effective dose would be 17.2 +/- 0.6 mSv for the 4.8-h m
300  a typical injected activity of 555 MBq, the effective dose would be 21.1 +/- 2.2 mSv for the 4.8-h i

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