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1 7.3% (distal pancreatectomy) to 22.9% (total pancreatectomy).
2 reasing surgical site infections (SSI) after pancreatectomy.
3 ly associated with poorer survival following pancreatectomy.
4 as associated with higher risk for allograft pancreatectomy.
5 creases of children with KATPHI who required pancreatectomy.
6 y play a role in diabetes secondary to total pancreatectomy.
7 2 patients (68% [95% CI, 49%-88%]) underwent pancreatectomy.
8 bine (825 mg/m2 orally twice daily) prior to pancreatectomy.
9 avin-1 may improve the long-term efficacy of pancreatectomy.
10 fluid administration on morbidity following pancreatectomy.
11 8 (71.2%), hip replacement; and 2276 (1.8%), pancreatectomy.
12 ne cells after beta-cell ablation or partial pancreatectomy.
13 d Whipple procedure and 7 patients had total pancreatectomy.
14 ul islet isolation after near-total or total pancreatectomy.
15 7.5% after hip replacement, and 16.3% after pancreatectomy.
16 elated deaths occurred within 365 days after pancreatectomy.
17 of patients required early readmission after pancreatectomy.
18 a near-total pancreatectomy, and one partial pancreatectomy.
19 pair, colectomy, total hip arthroplasty, and pancreatectomy.
20 ing either pancreaticoduodenectomy or distal pancreatectomy.
21 antly affect QoL in emergency laparotomy and pancreatectomy.
22 hat is unresponsive to diazoxide is subtotal pancreatectomy.
23 mandatory to provide appropriate care after pancreatectomy.
24 .14) for gastrectomy to 1.45 (1.21-1.73) for pancreatectomy.
25 y, and recovery as compared with open distal pancreatectomy.
26 partial pancreatic duct ligation or partial pancreatectomy.
27 y broaden indications for minimally invasive pancreatectomy.
28 odenectomy and 257 +/- 93 minutes for distal pancreatectomy.
29 nding the indications for minimally invasive pancreatectomy.
30 potential cause of recurrence after partial pancreatectomy.
31 ncreatic fistula in patients undergoing left pancreatectomy.
32 is the most frequent complication after left pancreatectomy.
33 in SSI between antibiotic-types after distal pancreatectomy.
34 deemed unsalvageable and required allograft pancreatectomy.
35 opic or surgical means, and partial or total pancreatectomy.
36 ndividuals may be managed medically, without pancreatectomy.
37 ncies and provides real-time feedback during pancreatectomy.
38 y, complications, and overall survival after pancreatectomy.
39 oval has yet to be explored following distal pancreatectomy.
40 colectomy to 71.2% (range, 8.3% to 100%) for pancreatectomy.
41 ized nationwide with no clear guidelines for pancreatectomy.
42 death for lung resection, esophagectomy, and pancreatectomy.
43 ed a pCR following neoadjuvant treatment and pancreatectomy.
44 2 with distal pancreatectomy, 2 with central pancreatectomy, 1 with total pancreatectomy) for failure
46 y (132), distal pancreatectomy (83), central pancreatectomy (13), pancreatic enucleation (10), total
47 an of 4 cycles of preoperative treatment and pancreatectomy, 155 (63%) initiated postoperative chemot
49 olectomy: 25.8%; hip replacement: 32.5%; and pancreatectomy: 19.7%) compared with the index hospitali
50 1,191 colectomies, 2,670 cystectomies, 1,514 pancreatectomies, 2,607 proctectomies, 12,228 prostatect
51 with pancreaticoduodenectomy, 2 with distal pancreatectomy, 2 with central pancreatectomy, 1 with to
53 5-year survival were good for standard total pancreatectomies (28.6 months and 24.3%, respectively) a
54 creatic gastrinoma resected by means of left pancreatectomy 31 years before, hyperparathyroidism trea
55 omy (13), pancreatic enucleation (10), total pancreatectomy (5), Appleby resection (4), and Frey proc
56 The majority of esophagectomy (77.8%) and pancreatectomy (53.4%) and 48.1% of proctectomy patients
59 arge portion of the decline in mortality for pancreatectomy (67% of the decline), cystectomy (37%), a
60 erative morbidity was higher following total pancreatectomy (69.0% vs. 38.6% for pancreaticoduodenect
62 o 0.95) and 80 patients who underwent distal pancreatectomy (7% vs. 23%; relative risk, 0.32; 95% CI,
64 lyzed; pancreaticoduodenectomy (132), distal pancreatectomy (83), central pancreatectomy (13), pancre
67 inical dilemma of balancing the morbidity of pancreatectomy against the risk of malignant transformat
68 d to improve glycemic control after extended pancreatectomy, almost exclusively in patients with chro
71 s reflect the invasiveness of extended total pancreatectomies and the underlying advanced malignant d
73 mortality rates were significantly lower for pancreatectomy and esophagectomy at Specialized Centers.
74 atify superficial and organ-space SSIs after pancreatectomy and investigate their modifiable risk fac
75 mplications, and long-term outcomes of total pancreatectomy and islet autotransplantation (TP-IAT) in
76 ze factors predicting outcomes after a total pancreatectomy and islet autotransplantation (TP-IAT).
84 luded 9 pancreaticoduodenectomies, 10 distal pancreatectomies, and 1 total pancreatectomy; 21 total s
85 3 partial pancreatoduodenectomies, 79 distal pancreatectomies, and 10 resections for tumor recurrence
86 ions (51 pancreaticoduodenectomies, 18 total pancreatectomies, and 49 distal splenopancreatectomies).
87 Pledge" aims to centralize esophagectomies, pancreatectomies, and proctectomies to hospitals meeting
88 uding 27 with localized tumors (11 underwent pancreatectomy, and 16 had localized nonresectable tumor
89 my, proctectomy, esophagectomy, gastrectomy, pancreatectomy, and hepatectomy for cancer between 2012
92 antation; (4) improving outcomes after total pancreatectomy; and (5) registry considerations for TPIA
94 or left pancreatectomy, as indicated); total pancreatectomy as an alternative to high-risk anastomosi
96 e process of the pancreas who underwent open pancreatectomy as well as intraoperative FS analysis bet
98 tic fistula (treated with completion or left pancreatectomy, as indicated); total pancreatectomy as a
99 ve analysis of all minimally invasive distal pancreatectomies at University of Pittsburgh Medical Cen
101 to statewide data of patients who underwent pancreatectomy at a tertiary care referral center betwee
105 tion (IAT) in patients undergoing completion pancreatectomy because of sepsis or bleeding after pancr
108 f 290 patients with localized PDAC underwent pancreatectomy between 2010 and 2018 after receiving pre
109 eview of 721 patients who underwent a distal pancreatectomy between February 1986 and February 2009.
111 y bypass surgery, oesophagectomy, colectomy, pancreatectomy, cholecystectomy, ventral hernia repair,
112 < .001) and operative characteristics (total pancreatectomy: coefficient, 12 742.31; 95% CI, 10 063.6
113 omes and hospital charge measures for distal pancreatectomy, comparing the surgical approaches and ad
114 uncinate process of the pancreas undergoing pancreatectomy, complete tumor extirpation via either en
116 otransplantation (TPIAT) rather than partial pancreatectomy could represent a major shift in the mana
117 s were collected from the 2016-2018 targeted-pancreatectomy database from the American College of Sur
118 geons' National Surgical Quality Improvement Pancreatectomy Demonstration Project at 37 high-volume c
119 interhospital transfer (IHT) patients after pancreatectomy, describe the characteristics of transfer
120 lications and pancreatic fistulae after left pancreatectomy differ when open versus laparoscopic tech
121 djusted in-hospital mortality for all distal pancreatectomies (DP), pancreatoduodenectomies (Whipple-
122 elopment of PL in patients undergoing distal pancreatectomy (DP) at a single high-volume institution.
123 derwent pancreatoduodenectomy (PD) or distal pancreatectomy (DP) for all indications between 2014 and
124 (ELNs) on staging and survival after distal pancreatectomy (DP) for pancreatic adenocarcinoma (PDAC)
125 ancreatic fistula (CR-POPF) following distal pancreatectomy (DP) is a dominant contributor to procedu
127 l, the early and long-term outcome of distal pancreatectomy (DP) performed by laparoscopy (LapDP) or
128 study was to test the hypothesis that distal pancreatectomy (DP) without intraperitoneal drainage doe
129 ally relevant fistula (CR-POPF) after distal pancreatectomy (DP), and to identify the cut-off of DFA1
130 rgoing pancreatoduodenectomy (PD) and distal pancreatectomy (DP), and to quantify the delivery of opt
133 erformed in pancreatic specimens after total pancreatectomy due to complications and after placing ex
135 baboons (Papio hamadryas) underwent partial pancreatectomy, followed by continuous infusion of EXE o
136 data on esophagectomies, gastrectomies, and pancreatectomies for cancer from the NHS Hospital Episod
137 s of a retrospective cohort including distal pancreatectomies for PDAC from 34 centers in 11 countrie
140 rgoing laparoscopic spleen-preserving distal pancreatectomy for benign or low-grade malignant tumors
141 erwent laparoscopic spleen-preserving distal pancreatectomy for benign or lowgrade malignant tumors i
142 s during pancreaticoduodenectomy; and distal pancreatectomy for benign/borderline neoplasm of pancrea
144 st, islet autografts, infused at the time of pancreatectomy for chronic pancreatitis, are not subject
145 absolute reduction in 30-day mortality after pancreatectomy for each 20% increase in the degree of ce
146 chemotherapy after preoperative therapy and pancreatectomy for pancreatic ductal adenocarcinoma (PDA
148 patients who underwent potentially curative pancreatectomy for pancreatic ductal adenocarcinoma were
149 ients who underwent preoperative therapy and pancreatectomy for pancreatic ductal adenocarcinoma.
152 chemotherapy and/or (chemo)radiation before pancreatectomy for PDAC between January 2010 and Decembe
153 s new information on how prognosis following pancreatectomy for PDAC evolves over time, adjusting for
154 of TPIAT as valuable alternative to partial pancreatectomy for PDAC patients with a high risk of pos
159 2 with central pancreatectomy, 1 with total pancreatectomy) for failure to progress (14) and bleedin
161 n margins) collected prospectively during 32 pancreatectomies from February 27, 2013, to January 16,
162 s, among patients undergoing elective distal pancreatectomy from 1998 to 2009 in the Nationwide Inpat
163 ents with PDAC who underwent robotic or open pancreatectomy from 2011 to 2016 with 24-month follow-up
165 e: lung resection, esophagectomy, colectomy, pancreatectomy, gastrectomy, abdominal aortic aneurysm r
166 he Whipple procedure group than in the total pancreatectomy group (median survival 19 months vs 4 mon
167 s 12.4%, P < 0.0001) was improved in robotic pancreatectomy group with no differences in perioperativ
168 sophagectomy: >=41/yr, gastrectomy: >=16/yr, pancreatectomy: >=26/yr, and hepatectomy: >=76/yr).
172 nificant difference in the incidence of post-pancreatectomy hemorrhage, delayed gastric emptying, inf
173 A policy that limits access to low-volume pancreatectomy hospitals will increase round-trip drivin
174 They also can be cured by selective partial pancreatectomy; however, unlike those with a K(ATP) foca
176 reatectomy was not inferior compared to open pancreatectomy in a high-volume experienced center for o
177 9], P < 0.001) and especially transfer after pancreatectomy in low volume centers (OR = 3.76, CI95%[2
178 ts who experienced major complications after pancreatectomy in low volume hospitals had greater odds
179 nced hands, the rates of complications after pancreatectomy in patients 80 years or older compared to
181 unders using instrumental variable analysis, pancreatectomy is associated with a statistically signif
187 The clinical pathway for laparoscopic distal pancreatectomy (LDP) versus open (ODP) for nonmalignant
192 ection factors for minimally invasive distal pancreatectomy (MIDP) and identify actual risk factors f
193 of open (ODP) and minimally invasive distal pancreatectomy (MIDP) are equivalent for benign lesions.
194 conversion during minimally invasive distal pancreatectomy (MIDP) for pancreatic ductal adenocarcino
196 cal outcomes after minimally invasive distal pancreatectomy (MIDP) with open distal pancreatectomy (O
197 raining program in minimally invasive distal pancreatectomy (MIDP), according to the IDEAL framework
198 ses Morbidity" to 0% for "Procedure-Targeted Pancreatectomy Mortality." For Essentials models, averag
199 ectomy (n = 968), proctectomy (n = 1250), or pancreatectomy (n = 1068) were categorized based on freq
200 nts undergoing hepatectomy (n = 2811) and/or pancreatectomy (n = 1092) from January 1997 to December
201 t was relevant in certain subgroups (upfront pancreatectomy (n = 117; P = 0.049); without VR or NAT (
202 ncreatoduodenectomy (n = 514; 88.2%), distal pancreatectomy (n = 62; 10.6%), or total pancreatectomy
204 ), Whipple or Beger procedure (n=14), distal pancreatectomy (n=8), or lateral pancreaticojejunostomy
205 75%)], tail resections [n = 16 (15%)], total pancreatectomies [n = 5 (5%)], and segment resections [n
206 he SMA-margin in specific subgroups (upfront pancreatectomy, N0 patients without NAT, N+ patients wit
207 juvant chemotherapy between robotic and open pancreatectomy, nor was approach an independent predicto
208 istal pancreatectomy (MIDP) with open distal pancreatectomy (ODP) in patients with pancreatic ductal
209 e treatment burden compared with open distal pancreatectomy (ODP), but studies on institutional train
215 rgical beta-cell replication models (partial pancreatectomy or partial duct ligation), representing t
216 rgest for patients who were readmitted after pancreatectomy (OR 0.56, 95% CI 0.45-0.69) and aortobife
218 isease (OR, 2.28; 95% CI, 1.23-4.24), distal pancreatectomy (OR, 1.77; 95% CI, 1.11-2.84), and postop
219 , gastrectomy, hysterectomy, lung resection, pancreatectomy, or prostatectomy were identified retrosp
220 mplexities of chronic pancreatitis and total pancreatectomy outcomes and postsurgical diabetes outcom
222 tive abdominal aortic aneurysm repair (AAA), pancreatectomy (PAN), and esophagectomy (ESO) as primary
223 f 596,222 patients undergoing esophagectomy, pancreatectomy, partial or total gastrectomy, colectomy,
230 cilities performing </=25, 26 to 65, and >65 pancreatectomies per year was 456, 20, and 9, respective
231 ty), there were 2 cut-offs (13 and 25 distal pancreatectomies per year), but neither was an independe
235 undergoing pancreaticoduodenectomy or distal pancreatectomy [POPF: pasireotide (n = 152), 9% vs place
237 2013 to 2017, pre, intra, and perioperative pancreatectomy processes have evolved, and multiple post
238 my, aortic valve replacement, esophagectomy, pancreatectomy, pulmonary resection, hepatectomy, colect
241 We hypothesized that robot-assisted distal pancreatectomy (RADP) was superior to LDP as a result of
244 ice (PANC PPARgamma(-/-)), normoglycemic 60% pancreatectomy rats (Px), normoglycemic and hyperglycemi
245 inforcement of stapled closure during distal pancreatectomy reduces the rate of fistula formation.
249 , definitive surgical management with distal pancreatectomy should be undertaken in patients with rea
252 precursor lesions, PanINs, from prophylactic pancreatectomy specimens of patients from four different
255 AT during nonemergency preemptive completion pancreatectomy through the pancreaticoduodenectomy.
256 ctal procedures, esophagectomy, gastrectomy, pancreatectomy, thyroidectomy, coronary artery bypass gr
257 This study simulates the regionalization of pancreatectomies to assess its impact on spatial access
259 ining program to teach robot-assisted distal pancreatectomy to surgeons at an academic institution an
262 tapled left pancreatectomy with stapled left pancreatectomy using mesh reinforcement of the staple li
263 e resection margins (22.2% vs. 43.7%) (total pancreatectomy vs. pancreaticoduodenectomy, respectively
264 perineural invasion (90.7% vs. 91.8%) (total pancreatectomy vs. pancreaticoduodenectomy, respectively
266 tes of resection in their geographic region, pancreatectomy was associated with a statistically signi
271 ospital quality, postoperative mortality for pancreatectomy was two times higher in the least central
273 etherlands (2005 to 2013) only 10% of distal pancreatectomies were in a minimally invasive fashion an
280 patients who developed diabetes after total pancreatectomy were candidates for the autologous transp
281 /partial gastrectomy, major hepatectomy, and pancreatectomy were identified using the National Inpati
285 oach has been the move to minimally invasive pancreatectomy, which continues to gain broader acceptan
286 incidence and indications for late allograft pancreatectomy while on continued immunosuppression for
291 on research gaps and opportunities in total pancreatectomy with islet autotransplantation (TPIAT) fo
292 ain but has not been widely applied to total pancreatectomy with islet autotransplantation (TPIAT).
295 100 consecutive patients undergoing central pancreatectomy with pancreaticogastrostomy from January
297 ized controlled trial comparing stapled left pancreatectomy with stapled left pancreatectomy using me
298 ancer recurrence-free survival after radical pancreatectomy, with a Harrell's concordance index of 0.
299 onal case of esophagectomy, gastrectomy, and pancreatectomy would reduce 30-day mortality odds by 3.4
300 ated by eliminating hospitals performing <20 pancreatectomies/yr, and reassigning patients to the nex