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1  greater than when delivered by fractionated external beam radiotherapy.
2 ue radiotherapy are comparable to those from external beam radiotherapy.
3 randomized men to 6 vs 36 months of ADT with external beam radiotherapy.
4 ron (VHEE) beams are an exciting prospect in external beam radiotherapy.
5 with the conventional policy of whole breast external beam radiotherapy.
6 tive radiotherapy and 1119 were allocated to external beam radiotherapy.
7 ed targeted intraoperative radiotherapy plus external beam radiotherapy.
8 ith quality indicators than those undergoing external beam radiotherapy.
9  have shifted towards fractionated conformal external beam radiotherapy.
10 ard treatment doses of both chemotherapy and external beam radiotherapy.
11 ing critical structures, and costs less than external beam radiotherapy.
12 October 31, 1995, and treated initially with external-beam radiotherapy.
13 eceive or not receive postoperative adjuvant external-beam radiotherapy.
14 reatment for neuroblastoma than conventional external-beam radiotherapy.
15 nal risks of BF and PCSD after completion of external-beam radiotherapy.
16 sed prostate cancer is commonly treated with external-beam radiotherapy.
17 data (cell death assay, volume response) and external-beam radiotherapy.
18 data (cell death assay, volume response) and external-beam radiotherapy.
19 ogical effectiveness of 0.4 in comparison to external-beam radiotherapy.
20 ogical effectiveness of 0.4 in comparison to external-beam radiotherapy.
21 patic toxicity similar to 40-Gy fractionated external-beam radiotherapy.
22 ter radical prostatectomy, brachytherapy, or external-beam radiotherapy.
23 adiotherapy, and three-dimensional conformal external-beam radiotherapy.
24  0.4%), plaque radiotherapy (7.0% vs. 5.2%), external beam radiotherapy (1.4% vs. 1.3%), enucleation
25 g of urinary obstruction and irritation with external beam radiotherapy (11.7 [95% CI, 8.7-14.8]) and
26 al prostatectomy (36.2 [95% CI, 30.4-42.0]), external beam radiotherapy (13.9 [95% CI, 6.7-21.2]), an
27 .5%), 469 radical prostatectomy (41.1%), 249 external beam radiotherapy (21.8%), and 109 brachytherap
28 2020, 28 (52%) of 54 countries had access to external beam radiotherapy, 21 (39%) had brachytherapy c
29 5.1-25.9]); and worsened bowel symptoms with external beam radiotherapy (4.9 [95% CI, 2.4-7.4]).
30 operative radiotherapy, 37 [3.3%] of 1113 vs external beam radiotherapy, 44 [3.9%] of 1119; p=0.44).
31 an consisted of 5 weeks of concurrent pelvic external beam radiotherapy (45 Gy) with continuous intra
32 atumoural administration before preoperative external-beam radiotherapy (50 Gy in 25 fractions) or ra
33 l chemotherapy (59% vs. 28%, P = 0.005), and external beam radiotherapy (59% vs. 94%, P < 0.001).
34                                              External beam radiotherapy (72.7%) was most commonly cho
35                        All patients received external-beam radiotherapy according to a strict protoco
36 f 25 postprostatectomy patients who received external-beam radiotherapy after prostatectomy and who u
37  secondary analysis of patients treated with external-beam radiotherapy alone and enrolled in the pro
38 ent, including radical prostatectomy (RP) or external-beam radiotherapy alone, is associated with hig
39              462 (92%) participants received external beam radiotherapy and brachytherapy with a medi
40 ough there is evidence for tumor response to external beam radiotherapy and despite the fact that a r
41 sed prostate cancer is commonly treated with external beam radiotherapy and moderate hypofractionatio
42 ment strategies, namely surgery and adjuvant external beam radiotherapy and targeted intraoperative r
43 ll patients to receive evidence-based breast external beam radiotherapy and to facilitate the transla
44 ancer incidence, with 38.4 million requiring external-beam radiotherapy and 28.8 million requiring br
45             We estimated the unique costs of external-beam radiotherapy and brachytherapy and include
46 e health and economic benefits of scaling up external-beam radiotherapy and brachytherapy for cervica
47 rcinoma of the esophagus received concurrent external-beam radiotherapy and chemotherapy followed by
48 on cavities (SCRCs) followed by conventional external-beam radiotherapy and chemotherapy.
49 ave radiosensitizing effects in conventional external-beam radiotherapy and have been tested in clini
50 rovide shorter, more convenient schedules of external-beam radiotherapy and interstitial treatment.
51 rom that of standard whole-breast tangential external-beam radiotherapy and necessitates investigatio
52 y of life (QOL) after radical prostatectomy, external beam radiotherapy, and brachytherapy vs active
53 ss of brachytherapy as comparable to that of external beam radiotherapy, and the side effect profile
54 oadjuvant chemotherapy, enucleation, orbital external-beam radiotherapy, and adjuvant chemotherapy.
55 than does standard-dose conventional radical external-beam radiotherapy, and could improve long-term
56         Utilization rates for prostatectomy, external-beam radiotherapy, and observation have fallen
57             Chemoradiotherapy included 45 Gy external beam radiotherapy at 5 fractions per week concu
58                   Two patients also received external-beam radiotherapy before IAC.
59 were randomized to receive 70 Gy or 78 Gy of external-beam radiotherapy between 1993 and 1998.
60 ying QoL outcomes for radical prostatectomy, external beam radiotherapy, brachytherapy, and cryothera
61        Treatment with radical prostatectomy, external beam radiotherapy, brachytherapy, or active sur
62 reatment for almost a century, being used in external-beam radiotherapy, brachytherapy, and targeted
63 ry (radical prostatectomy) and radiotherapy (external-beam radiotherapy, brachytherapy, or both) are
64 rostatectomy, or three-dimensional conformal external-beam radiotherapy by a computer-generated alloc
65 w indicated a 15% improvement in the current external beam radiotherapy capacity in Latin America and
66 lerators and, similar to Georgia, high total external beam radiotherapy capacity) than the other ART
67                                 Conventional external beam radiotherapy (cEBRT) and stereotactic body
68 n reported for in vitro cell cultures or for external-beam radiotherapy clinical studies.
69                       Treatment consisted of external beam radiotherapy, concurrent chemotherapy, and
70                                              External-beam radiotherapy continues to be an important
71 tin 40 mg/m(2) for 5 weeks with 45.0-50.4 Gy external beam radiotherapy delivered in 20-28 fractions
72 weeks, during radiotherapy with 45.0-50.4 Gy external beam radiotherapy delivered in fractions of 1.8
73 py should be considered as an alternative to external beam radiotherapy delivered over several weeks.
74  randomly assigned to receive 60 to 64 Gy of external beam radiotherapy delivered to the prostatic fo
75 , 5-6 cycles, 1 day per cycle, plus 45-50 Gy external-beam radiotherapy delivered in 1.8-2 Gy fractio
76     Neither brachytherapy nor an increase in external beam radiotherapy dose has been proven to impro
77 antageous dose distribution than photons for external beam radiotherapy, due to their so-called inver
78             Radiation therapy (RT) including external beam radiotherapy (EBRT) and internal radioisot
79 atterns for and safety of the combination of external beam radiotherapy (EBRT) and LuPSMA in the real
80 stigate its predictive value for response to external beam radiotherapy (EBRT) and vaginal brachyther
81          Preclinical studies have shown that external beam radiotherapy (EBRT) can synergize with ICI
82 ve radiotherapy (TARGIT) versus fractionated external beam radiotherapy (EBRT) for breast cancer.
83 tudy, we conducted a lifecycle assessment of external beam radiotherapy (EBRT) for ten anatomical dis
84 erapy (ADT) or a brachytherapy boost (BT) to external beam radiotherapy (EBRT) have been shown to imp
85 atic tumor lesion(s) in addition to standard external beam radiotherapy (EBRT) improves biochemical d
86 eing compared with the standard fractionated external beam radiotherapy (EBRT) in randomized trials.
87 the effect of radical prostatectomy (RP) and external beam radiotherapy (EBRT) on distant metastases
88  of the paclitaxel formulation and dose, but external beam radiotherapy (EBRT) only achieved tumour-g
89 , combining TRT with moderate-dose (12 gray) external beam radiotherapy (EBRT) targeting a single tum
90                                              External beam radiotherapy (EBRT) was necessary in 33 ey
91 OT1 and NCI-H69 tumor cell lines to PRRT and external beam radiotherapy (EBRT) were compared.
92                  Radical prostatectomy (RP), external beam radiotherapy (EBRT) with androgen deprivat
93 y was to determine in what manner aggressive external beam radiotherapy (EBRT), chemotherapy, surgica
94  Curative-intent radical prostatectomy (RP), external beam radiotherapy (EBRT), or EBRT plus brachyth
95                       Patients who underwent external beam radiotherapy (EBRT), radical prostatectomy
96 EMZL and FL) were most commonly treated with external beam radiotherapy (EBRT), whereas high-grade ly
97 ndividuals with prostate cancer treated with external beam radiotherapy (EBRT).
98                             All pts received external beam radiotherapy (EBRT): 45 Gy in 25 fractions
99      Geocoded location of patients receiving external beam radiotherapy (EBRT); median Euclidean dist
100 y (100 microg/delivery) or hyperfractionated external beam radiotherapy (EBRT; 15 Gy total dose).
101 s HT-29 and DLD-1 after exposure to (90)Y or external beam radiotherapy (EBRT; 6 MV photons) were use
102                           The combination of external-beam radiotherapy (EBRT) and (177)Lu-labeled pr
103 nt-free survival was defined as avoidance of external-beam radiotherapy (EBRT) and enucleation.
104 sk localized prostatic carcinoma, treated by external-beam radiotherapy (EBRT) at 70-78 Gy.
105 ment strategy that combines radioiodine with external-beam radiotherapy (EBRT) for patients with low
106 eprivation therapy (ADT) in combination with external-beam radiotherapy (EBRT) in men with locally ad
107                 We evaluated the efficacy of external-beam radiotherapy (EBRT) in the palliation of p
108 idene diphosphonate (HEDP) as an adjuvant to external-beam radiotherapy (EBRT) in the treatment of pa
109      Methods: Six cell lines were exposed to external-beam radiotherapy (EBRT) or (177)Lu-DOTATATE, a
110 0; P = .01), low income (OR, 1.74; P < .01), external-beam radiotherapy (EBRT; OR, 0.85; P = .01), an
111 y to calculate current and projected gaps in external beam radiotherapy facilities.
112          Patients then received conventional external-beam radiotherapy followed by a year of alkylat
113 mized clinical trials of patients undergoing external beam radiotherapy for prostate cancer, the cond
114 s and technological advances in image-guided external beam radiotherapy for prostate cancer.
115 TRO) produced an evidence-based guideline on external-beam radiotherapy for patients with locally adv
116                                   Effects of external-beam radiotherapy for prostate cancer among a p
117 ts who develop an isolated PSA relapse after external-beam radiotherapy for prostate cancer.
118 ctive monitoring, radical prostatectomy, and external-beam radiotherapy for the treatment of clinical
119 rapy group (six patients [0.5%]) than in the external beam radiotherapy group (23 patients [2.1%]; p=
120 ve radiotherapy and 0.95% (0.39-2.31) in the external beam radiotherapy group (difference between gro
121                   1025 (92%) patients in the external beam radiotherapy group received the allocated
122 operative radiotherapy group and five in the external beam radiotherapy group.
123 ancers, and combined anti-PD-L1 therapy with external beam radiotherapy has been shown to increase th
124 hemotherapy for radiation sensitization, and external beam radiotherapy has emerged as a valid treatm
125                                              External beam radiotherapy has historically played a min
126                                     Although external-beam radiotherapy has long integrated dosimetry
127 ormonal ablation therapy in combination with external-beam radiotherapy has shown improvement in prog
128 liable long-term results, and the studies of external-beam radiotherapy have used the best scientific
129 y arms administered before hyperfractionated external-beam radiotherapy (HFEBRT).
130  deprivation has been used as an adjuvant to external beam radiotherapy, however, emerging data sugge
131 ation characteristics, and combinations with external-beam radiotherapy, immunotherapy, and DNA damag
132 radiotherapy (3DCRT) and intensity-modulated external-beam radiotherapy (IMRT), better implant techni
133 omas may be safely managed with fractionated external beam radiotherapy in select patients with possi
134 osting of the macroscopic visible tumor with external beam radiotherapy increases biochemical disease
135                             The technique of external beam radiotherapy is most often used and is del
136  study indicates that although postoperative external-beam radiotherapy is highly effective in preven
137 rrent solid tumors, for which the utility of external-beam radiotherapy is limited, the prognosis is
138 ently, in metastatic disease, the utility of external-beam radiotherapy is limited.
139 y (n = 3), proton beam radiotherapy (n = 1), external beam radiotherapy (n = 1), systemic chemotherap
140  = 8, 23%), plaque radiotherapy (n = 3, 9%), external beam radiotherapy (n = 1, 3%), cryotherapy (n =
141  or eyelid) metastasis was excision (n = 5), external beam radiotherapy (n = 2), and observation (n =
142                       Radical prostatectomy, external beam radiotherapy (n = 359), brachytherapy (n =
143 ents (n = 7), pars-plana vitrectomy (n = 3), external-beam radiotherapy (n = 2), laser (n = 2), and r
144                                              External-beam radiotherapy of early prostate cancer is f
145 is recommended as a new standard of care for external-beam radiotherapy of localised prostate cancer.
146 risk groups for predicting the outcome after external-beam radiotherapy of localized prostate cancer.
147 dle-income countries required treatment with external-beam radiotherapy, of which 7.0 million also re
148 orbed dose-effect relationships adapted from external-beam radiotherapy, often without accounting for
149 rs in up to a third of patients treated with external beam radiotherapy or combined chemoradiotherapy
150 pressive tumor control, without the need for external beam radiotherapy or enucleation.
151 responses to venetoclax combined with either external beam radiotherapy or radioimmunotherapy (RIT),
152 on of ionising radiation (IR) in the form of external beam radiotherapy or targeted radionuclide ther
153 otherapy, hormone therapy, immunotherapy, or external beam radiotherapy or those patients with a soli
154  for tumors recurrent after prior surgery or external beam radiotherapy or unresectable tumors.
155 ate cancer defined by Phoenix criteria after external-beam radiotherapy or brachytherapy as primary t
156 ty-seven and 41 patients had been treated by external-beam radiotherapy or brachytherapy, respectivel
157 erically equivalent to results achieved with external-beam radiotherapy or radical prostatectomy.
158       Standard treatment options include RP, external-beam radiotherapy, or hormonal ablation therapy
159                                              External-beam radiotherapy plays a critical role in the
160 t screening, and planned total radiotherapy (external beam radiotherapy plus brachytherapy) dose (<70
161 t screening, and planned total radiotherapy (external beam radiotherapy plus brachytherapy) dose (<70
162             We then assessed the efficacy of external beam radiotherapy plus venetoclax in murine xen
163                               In each model, external beam radiotherapy plus venetoclax synergistical
164 treous chemotherapy have completely replaced external beam radiotherapy, reduced the use of systemic
165 e for 50% (BED50) of 115, 93, and 250 Gy for external-beam radiotherapy, resin microsphere radioembol
166 st in the role of local therapies, including external beam radiotherapy (RT), for men with metastatic
167 y (RP) and up to 45% in patients who receive external beam radiotherapy (RT).
168 rogen deprivation (AD) after initial AD with external-beam radiotherapy (RT) in patients with locally
169 sociated with these treatments compared with external-beam radiotherapy (RT).(1,2).
170 s of androgen deprivation therapy (ADT) with external beam radiotherapy; the EORTC 22961 trial random
171                                           In external-beam radiotherapy, these tumors present a chall
172 lobular carcinoma) could trigger addition of external beam radiotherapy to targeted intraoperative ra
173         Key exclusion criteria were previous external beam radiotherapy to the target lesion and rece
174 vious treatments included docetaxel (n = 5), external-beam radiotherapy to metastases (n = 5), abirat
175            Cryotherapy, plaque radiotherapy, external beam radiotherapy, tumor removal by partial lam
176  were stratified at randomisation by planned external beam radiotherapy type (intensity-modulated rad
177      Randomisation was stratified by planned external beam radiotherapy type (intensity-modulated rad
178 , bone metastasis, prior chemotherapy, prior external-beam radiotherapy, uptake on the [(111)In-DTPA(
179 th an equivalent absorbed dose delivered via external-beam radiotherapy using tumor volume as a measu
180                                   Palliative external beam radiotherapy was administered.
181                          As of Oct 22, 2022, external beam radiotherapy was available in 32 (78%) of
182           Results: Clonogenic survival after external-beam radiotherapy was cell-line-specific, indic
183 f radiation oncologists believed surgery and external beam radiotherapy were equivalent treatments.
184 y one third of that produced by fractionated external beam radiotherapy, when measured by tumor regro
185 mong men with unfavorable-prognosis disease, external beam radiotherapy with androgen deprivation the
186   Among patients with unfavorable prognosis, external beam radiotherapy with androgen deprivation the
187 , -1.4 [95% CI, -11.1 to 8.3), compared with external beam radiotherapy with androgen deprivation the
188 sease and radical prostatectomy (n = 362) or external beam radiotherapy with androgen deprivation the
189          The patient was treated with ocular external beam radiotherapy with resolution of the intrao
190 stration of tumor progression after standard external-beam radiotherapy with or without chemotherapy
191  intraoperative radiotherapy or whole breast external beam radiotherapy, with blocks stratified by ce
192 U) and cisplatin administered monthly before external-beam radiotherapy would improve the survival of
193 untreated (stratum A), newly diagnosed after external beam radiotherapy (XRT) (stratum B), and recurr
194 ere tested: (a) empty polymer (no drug); (b) external beam radiotherapy (XRT) alone; (c) local chemot
195                                     Although external beam radiotherapy (xRT) is commonly used to tre

 
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