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1 correlated with the presence of carcinoma at lumpectomy.
2 s with a less than 2% chance of carcinoma at lumpectomy.
3 ng surgical accuracy and margin status after lumpectomy.
4 clinical or mammographic findings following lumpectomy.
5 gement of breast tumors judged too large for lumpectomy.
6 hy to allow accurate needle localization for lumpectomy.
7 permitted successful needle localization and lumpectomy.
8 e delivery in patients with DCIS resected by lumpectomy.
9 s had cancer in the ipsilateral breast after lumpectomy.
10 radiation therapy without chemotherapy after lumpectomy.
11 st risk reduction in the long term following lumpectomy.
12 s per timing of randomisation in relation to lumpectomy.
13 eceptor-negative cancer, and radiation after lumpectomy.
14 for any type of esophageal cancer following lumpectomy.
17 52]; total knee replacement [42 313]; breast lumpectomy [18 018]; colectomy [14 074]; coronary artery
19 cancer patients were more likely to undergo lumpectomy (67% vs 48% of Pt/PhysD breast cancer patient
24 oregional breast cancer treated with primary lumpectomy (90 [89%]) or mastectomy (11 [11%]); 75 (74%)
25 treatment with radiotherapy after undergoing lumpectomy, 9941 patients (72.4%) completed at least 1 P
28 ral breast recurrence were 7.8% and 7.8% for lumpectomy alone and 8.0% and 9.2% for lumpectomy + RT,
29 hat the combination was more beneficial than lumpectomy alone for localized intraductal carcinoma-in-
30 th radiation therapy was more effective than lumpectomy alone for the treatment of ductal carcinoma i
31 ctomy plus radiation is more beneficial than lumpectomy alone for women with localized, mammographica
34 ble Stage IA and IB cancer with 26.6% having lumpectomy alone versus 9.4% in the younger patients.
36 atio for death among the women who underwent lumpectomy alone, as compared with those who underwent t
37 ed treatment consisting of total mastectomy, lumpectomy alone, or lumpectomy and breast irradiation.
40 f whom 46,250 (62.1%) underwent a completion lumpectomy and 28,267 (37.9%) underwent a mastectomy.
42 was 14.3 percent in the women who underwent lumpectomy and breast irradiation, as compared with 39.2
46 e (NCDB) were examined to evaluate trends in lumpectomy and mastectomy rates from 2005 through 2017.
47 antified from diffuse reflectance spectra of lumpectomy and mastectomy specimens using a Monte Carlo
49 e breast cancer were more often treated with lumpectomy and radiation and underwent fewer mastectomie
50 ve breast cancers treated with mastectomy or lumpectomy and radiation enrolled in the Stockholm tamox
51 reoperatively than postoperatively underwent lumpectomy and radiation therapy (67.8% v 59.8%, respect
52 cancer patients treated conservatively with lumpectomy and radiation therapy (LRT) have an estimated
53 th stages I to II breast cancer treated with lumpectomy and radiation therapy (median follow-up, 12.1
55 osis on the outcome of treatment with either lumpectomy and radiation therapy (RT) or mastectomy for
58 with early-stage breast cancer treated with lumpectomy and radiation therapy, 30% to 40% will develo
63 ate follow-up, younger patients treated with lumpectomy and RT had a significantly higher rate of loc
64 sis on the outcome of treatment of DCIS with lumpectomy and RT or mastectomy were identified through
65 treatment of younger patients with DCIS with lumpectomy and RT requires careful attention to patient
66 DCIS, the influence of age on outcome after lumpectomy and RT, and the impact of age on outcome afte
71 ine negative or close surgical margins after lumpectomy and to determine the factors that govern the
72 ident early-stage breast cancer treated with lumpectomy and WBI from 2008 and 2013 into 2 cohorts: (1
73 cinoma from 2012-2016 that underwent upfront lumpectomy and were found to have a positive sentinel no
76 nts, 43% underwent mastectomy, 53% underwent lumpectomy, and therapy of 4% of patients is unknown.
77 ears) who underwent unilateral mastectomy or lumpectomy as the primary surgery for BC were included i
83 eloped within or immediately adjacent to the lumpectomy cavity and were designated as true recurrence
85 re (SOC) excision, pFGS was used to scan the lumpectomy cavity to guide the removal of additional sha
87 valuate the worth of radiation therapy after lumpectomy concluded that the combination was more benef
89 asing risk of systemic relapse, frequency of lumpectomy declined (rates for five strata in order of i
93 atio for death among the women who underwent lumpectomy followed by breast irradiation, as compared w
94 agnosed at age 42 years or younger underwent lumpectomy followed by radiotherapy at our hospital.
96 early-stage breast cancer were managed with lumpectomy followed by RT restricted to the tumor bed us
97 lumpectomy plus tamoxifen is as effective as lumpectomy followed by tamoxifen plus radiation therapy.
98 nized cytotoxic therapy before mastectomy or lumpectomy for advanced breast carcinoma, 56 were select
102 ent years, use of breast brachytherapy after lumpectomy for early breast cancer has increased substan
104 f patients aged 50 to 69 years who underwent lumpectomy for early-stage breast cancer with ODX RS of
105 ns who recognise the limitations of standard lumpectomy for large breast cancers, and review differen
107 ummarise the general approach to oncoplastic lumpectomy for surgeons who recognise the limitations of
108 ved adjuvant whole-breast radiotherapy after lumpectomy for unilateral breast cancer at MROQC partici
115 a repair, femoral hernia repair, mastectomy, lumpectomy, hip arthroplasty, knee arthroplasty, hystere
116 s support whole-breast irradiation following lumpectomy; however, with an absolute difference of less
117 yoablation could be as effective and safe as lumpectomy in cases of low-risk early-stage breast cance
119 about the need for breast irradiation after lumpectomy in node-negative women with invasive breast c
124 as postoperative chemotherapy, permits more lumpectomies, is appropriate for the treatment of certai
126 /control status and by case treatment group: lumpectomy, lumpectomy with adjuvant radiation therapy,
130 y 2016, 488 surgeons were surveyed regarding lumpectomy margins; 342 (70%) responded completely.
132 cipants eligible for radiation therapy after lumpectomy, navigated participants (n = 255) were no mor
133 nstruction, adjuvant radiation therapy after lumpectomy, neoadjuvant chemotherapy for stage III disea
138 nt breast lesions that traditionally require lumpectomy or excisional biopsy as search terms was cond
139 cal adipose deficiency, such as lipoatrophy, lumpectomy or facial trauma, is a formidable challenge i
144 ctomy (OR, 1.43 [95% CI, 1.32-1.54]), breast lumpectomy (OR, 1.34 [95% CI, 1.23-1.46]), minimally inv
145 prepathology stratum, TARGIT concurrent with lumpectomy) or after lumpectomy (postpathology stratum,
146 nd rates of additional surgery after initial lumpectomy over time, and surgeon attitudes toward an ad
151 ts (8.9% local; 3.4% regional) and 10.3% for lumpectomy plus breast radiotherapy patients (8.1% local
153 w-up, our findings continue to indicate that lumpectomy plus radiation is more beneficial than lumpec
156 e early breast cancer, it is unclear whether lumpectomy plus tamoxifen is as effective as lumpectomy
157 TARGIT concurrent with lumpectomy) or after lumpectomy (postpathology stratum, TARGIT given subseque
158 herapy: randomisation occurred either before lumpectomy (prepathology stratum, TARGIT concurrent with
161 involved with tumour, were randomly assigned lumpectomy, radiation therapy (50 Gy), and placebo (n=90
162 ion therapy (50 Gy), and placebo (n=902), or lumpectomy, radiation therapy, and tamoxifen (20 mg dail
164 domised controlled trial to find out whether lumpectomy, radiation therapy, and tamoxifen was of more
165 -negative breast cancer who are treated with lumpectomy, radiation, and adjuvant systemic therapy, th
166 tive sentinel lymph nodes (SLNs) who undergo lumpectomy, radiotherapy (RT), and systemic therapy.
168 end tests demonstrated an annual decrease in lumpectomy rates of 1.31% (95% CI, 1.30%-1.32%), 0.07% (
170 dicated a trend reversal with an increase in lumpectomy rates since 2013 and an associated decline in
171 From 2013 to 2017, the annual increase in lumpectomy rates was 0.96% (95% CI, 0.95%-0.98%), 1.60%
174 factors were independent predictors of lower lumpectomy rates, prospective research is needed into ho
175 enetic counseling and testing, mastectomy vs lumpectomy, receipt of chest reconstruction, adjuvant ra
176 with a history of breast cancer treated with lumpectomy regardless of genetic predisposition; contral
177 tation of axillary lymph node dissection and lumpectomy reoperation in response to guidelines support
178 node dissection rates ranged from 7% to 47%, lumpectomy reoperation rates ranged from 3% to 62%, cont
184 rrences, 19 (70%) were at or adjacent to the lumpectomy site and eight (30%) were elsewhere in the br
185 urgery with adjuvant radiation that includes lumpectomy site boosts yields an acceptably low 5-year L
186 appearing microcalcifications develop at the lumpectomy site depending on time of appearance and numb
187 < or = 3 mm were more frequently found, and lumpectomy site radiation boost was used increasingly fr
188 east local recurrence away from the original lumpectomy site with or without postoperative standard w
192 er standard pathology assessment of the main lumpectomy specimen (69.4% vs 38.2%, respectively).
194 were compared with histologic findings from lumpectomy specimens to determine presence of intraducta
196 lcifications at the resection margins of the lumpectomy specimens, but had negative microscopic margi
197 gions were acquired from surgical margins of lumpectomy specimens, registered with ink, and correlate
199 the use of intraoperative irradiation after lumpectomy, the management of ductal carcinoma the effec
201 cm, IBTR occurs with enough frequency after lumpectomy to justify considering XRT, regardless of tum
203 eceptor-positive breast carcinoma treated by lumpectomy to receive tamoxifen plus radiation therapy (
206 ctomy (US dollars 2775 v US dollars 1849) or lumpectomy (US dollars 2112 v US dollars 1365) was used.
209 he following significant predictors of lower lumpectomy use: positive nodes; many positive nodes, inc
210 gram receipt were higher for women who had a lumpectomy (v mastectomy) and women who were white (v no
213 itial implant, and lasting 4 to 5 days after lumpectomy was prospectively evaluated in early-stage br
216 r (ER) -positive breast carcinoma treated by lumpectomy were randomly assigned to receive tamoxifen p
217 who were candidates for either mastectomy or lumpectomy were recruited from a university breast cance
218 lateral breast tumor recurrence (IBTR) after lumpectomy were similar in both groups (7.9% and 5.8%, r
219 241,597 patients (76.4%) underwent a single lumpectomy, whereas 74,517 (23.6%) underwent at least 1
220 B-18, B-22, and B-25), who were treated with lumpectomy, whole-breast irradiation, and adjuvant syste
223 ts who underwent radiation therapy following lumpectomy with a planned electron boost were examined.
225 tus and by case treatment group: lumpectomy, lumpectomy with adjuvant radiation therapy, and mastecto
227 n in patients treated by mastectomy (80%) or lumpectomy with axillary dissection and radiation (95%,
229 positive ductal carcinoma in situ treated by lumpectomy with clear resection margins and whole breast
230 positive ductal carcinoma in situ treated by lumpectomy with clear resection margins and whole-breast
232 and multifocal breast cancers), who had had lumpectomy with negative (ie, no detectable cancer cells
233 carcinoma in situ, <=3 cm in size treated by lumpectomy with negative axillary nodes were randomly as
234 ated a randomized trial to determine whether lumpectomy with or without radiation therapy was as effe
238 and 22 mastectomy candidates were changed to lumpectomy, with tumor size decreasing from 4.2 +/- 2.1