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1 The primary outcome was 30-day unplanned hospital readmission.
2 p = 0.04) were independently associated with hospital readmission.
3 minor complications, failure to rescue, and hospital readmission.
4 Heart failure (HF) is the leading cause for hospital readmission.
5 or patients who underwent surgery who needed hospital readmission.
6 ength of hospital stay and time to all-cause hospital readmission.
7 1.25]) were associated with a higher risk of hospital readmission.
8 atisfaction and either major complication or hospital readmission.
9 ins were associated with hazard of all-cause hospital readmission.
10 Patients with ESRD are at high risk for hospital readmission.
11 y (SNF) performance measures and the risk of hospital readmission.
12 ications, is associated with a lower risk of hospital readmission.
13 as associated with less late NIV failure and hospital readmission.
14 a tipping point exists for LOS reduction and hospital readmission.
15 ospital mortality, short-term mortality, and hospital readmission.
16 time, with higher risks of complications and hospital readmission.
17 with an increased likelihood of an inpatient hospital readmission.
18 h anemia, AKI, post-discharge mortality, and hospital readmission.
19 The primary outcome was unplanned 30-day hospital readmission.
20 , an uneventful postoperative course, and no hospital readmission.
21 ergency hospital resource use, and emergency hospital readmission.
22 of tracheostomy, 60.3% of patients required hospital readmission.
23 (83%) reporting greater than or equal to one hospital readmission.
24 rate for the combined end point of death and hospital readmission.
25 cluding length of stay (LOS), mortality, and hospital readmission.
26 talization, nonroutine discharge status, and hospital readmission.
27 n the usual care group, but no difference in hospital readmissions.
28 e events, overall serious adverse events, or hospital readmissions.
29 ontributor to excess healthcare costs due to hospital readmissions.
30 alth care reform has been on reducing 30-day hospital readmissions.
31 that this reduction may result in increased hospital readmissions.
32 rstand frequency and factors associated with hospital readmissions.
33 vement on any variables except self-harm and hospital readmissions.
34 suicide attempts, and rates and duration of hospital readmissions.
35 lure trials, when compared with mortality or hospital readmissions.
36 postdischarge mortality related to reducing hospital readmissions.
37 and does not result in higher-than-expected hospital readmissions.
38 h outcomes and a positive effect on reducing hospital readmissions.
39 ortality (45 [2.0] vs 37 [1.6]; P = .23) and hospital readmissions (107 [4.9] vs 103 [4.4]; P = .42)
40 ex admission (-$11 [95% CI, -$278 to $257]), hospital readmission ($245 [95% CI, -$231 to $721]), or
43 tations (10.8% v 13.8%; P = .2) or unplanned hospital readmissions (8.6% v 10.5%; P = .4) at 1 month.
44 (adjusted HR, 1.39 [95% CI, 1.23-1.56]) and hospital readmission (adjusted HR, 1.19 [95% CI, 1.11-1.
50 rd can be used to refine risk prediction for hospital readmission after percutaneous coronary interve
53 k factors, outcomes, and prevention of early hospital readmissions after kidney, liver, and kidney-pa
54 We confirmed that the majority of unplanned hospital readmissions after sepsis are due to an infecti
55 dence suggests that some, but not all, early hospital readmissions after transplantation may be preve
56 ssion (DHR) data, they may underestimate all-hospital readmission (AHR) rates (hospital A to hospital
58 ght to understand the relative importance of hospital readmission among all health services received
59 f our study was to characterize frequency of hospital readmissions among patients hospitalized with l
60 cations highlighting the high rates of early hospital readmissions among transplant recipients, more
63 tions, length of hospital stay, and rates of hospital readmission and emergency department visits wit
68 hospital system could save approximately 7.5 hospital readmissions and 253.8 hospital days per year.
70 tivariate modeling approach that categorizes hospital readmissions and emergency department visits as
71 fficient option when analyzing heart failure hospital readmissions and emergency department visits.
73 laboratory, and imaging data with number of hospital readmissions and in-hospital days over the next
74 g this high-risk group may decrease frequent hospital readmissions and increase access to transplanta
76 rogram decreases chronic heart failure (CHF) hospital readmissions and mortality over a six-month per
77 of stroke, poor functional status, increased hospital readmissions and substantial cognitive dysfunct
80 Outpatient commitment can work to reduce hospital readmissions and total hospital days when court
82 ed return to the operating room and need for hospital readmission, and 8 minor wound-related complica
85 stay, cost of hospitalization, incidence of hospital readmission, and mortality for patients who did
88 its with respect to hypertension management, hospital readmissions, and diabetic glycemic control.
89 tient outcomes following index and non-index hospital readmissions, and explore predictive factors fo
90 hour contact for patients, prior approval of hospital readmissions, and HBPC team participation in di
91 ed as 100-adherence rate), 30-day mortality, hospital readmissions, and Medicare spending across hosp
95 agement program (THMP) on patient adherence, hospital readmissions, and quality of life (QOL) after l
96 h nonaffective psychotic disorders, reducing hospital readmissions approximately 72% and requiring 28
104 cubitril/valsartan (LCZ696) reduces rates of hospital readmission at 30-days following HF hospitaliza
105 with care, and caregiver burden and reduced hospital readmissions at 6 months, but it did not substi
106 Outcome measures included patient mortality; hospital readmissions, avoidable admissions, and prolong
107 recurrent bloodstream infections, and 30-day hospital readmissions, but the AST intervention group ha
108 to reduce the absolute probability of 30-day hospital readmission by 3.5% (95% confidence interval, 1
111 antibodies were more likely to have multiple hospital readmissions compared to children with normal a
112 nts had slightly higher percentage (4.2%) of hospital readmissions compared to youth (3.4%, P = .01)
114 io = 0.56, 95% CI: 0.32, 0.96; p = 0.03) and hospital readmission costs of $7,515 less per patient.
115 between the two groups apart from 3.0 fewer hospital readmission days (95% CI, -5.3 to -0.8; p = 0.0
120 primary outcome measure was the incidence of hospital readmissions directly related to adhesions in t
122 dministrative and clinical diagnoses for all hospital readmissions, discrepancy between planned readm
123 Five themes emerged as reasons cited for hospital readmission: distressing symptoms, unavoidable
125 ter discharge included those attributable to hospital readmission, ED visits, rehab, physician billin
128 s studies investigating patients at risk for hospital readmissions focus on medical services and have
129 identification of patients at risk for early hospital readmission following KT may guide discharge pl
134 hod for identifying an individual's risk for hospital readmission for congestive heart failure (CHF)
135 erapy was associated with increased rates of hospital readmission for diabetic complications traditio
136 ollow-up, all patients remain alive, without hospital readmission for heart failure and with New York
137 dy was to identify independent predictors of hospital readmission for patients undergoing lobectomy f
139 as recently been focused on the reduction of hospital readmissions for COPD exacerbations, health sys
141 ar composite outcome was all-cause death and hospital readmissions for myocardial infarction, heart f
144 ly implemented financial penalties to reduce hospital readmissions for select conditions, including c
146 in admission (treat-and-release encounters), hospital readmissions from any source, and a combined me
149 MI and HF in Ontario, Canada, where reducing hospital readmissions has not had a policy incentive.
151 he United States, national efforts to reduce hospital readmissions have been enacted, including the a
153 , T patients had a significant lower rate of hospital readmission (hazard ratio: 0.64, p < 0.001) and
154 significantly associated with an increase in hospital readmission [hazard ratio (HR) = 1.63, 95% conf
155 ent outcomes, with a 32% lower likelihood of hospital readmission if the first inpatient unit was an
156 omes including delayed graft function, early hospital readmission, immunosuppression intolerance, and
157 y determined predictors of early nonelective hospital readmission in 92 (49 women and 43 men) nutriti
158 plex (OR, 3.5; 95% CI, 2.1-6.1) CHD, and for hospital readmission in both CHD groups combined (OR, 3.
159 To compare treatment failure leading to hospital readmission in children with complicated append
160 and validate a risk score to predict 30-day hospital readmission in decompensated cirrhosis patients
161 e severe exacerbations and increased risk of hospital readmission in patients with chronic obstructiv
162 with heart failure (HF) are at high risk for hospital readmission in the first 30 days following HF h
163 intestinal illnesses, failure to thrive, and hospital readmission in the first year of life and socio
164 onitoring by outpatient providers can reduce hospital readmissions in patients receiving hemodialysis
165 lease visits and 147.6 (95% CI, 147.3-147.9) hospital readmissions in the 30 days following discharge
167 ost data on readmission focus solely on same hospital readmission (index hospitals) within 30 days of
168 two regimens had similar toxicity profiles (hospital readmission, infection, wound complications, an
178 One potential strategy for reducing early hospital readmissions is to critically examine care rece
179 y, admission to intensive care, non-elective hospital readmission, major complications, and decline i
181 ll, 10-year mortality was 98.8%, with 35 966 hospital readmissions occurring over the lifetime of the
184 that sustained outpatient commitment reduced hospital readmissions only when combined with a higher i
188 ber of diagnostic tests after infection, and hospital readmissions or visits to the emergency departm
190 of intubation, tracheostomy tube placement, hospital readmission, or mortality between patients with
192 alization had a significantly longer time to hospital readmission (P <.001) and improved survival (P
193 s of postoperative morbidity (P = 0.047) and hospital readmissions (P = 0.04) in the >/= 8 mug/mL com
194 9 readmissions/patient for control group) in hospital readmissions (P=.03) at 6 months that was not s
195 mpared with the worst-performing quartile of hospital readmission performance, there was a significan
196 Complicated PPS--noncomplicated PPS plus hospital readmission +/- pericardiocentesis or thoracent
197 le emergency department (ED) utilization and hospital readmissions pose a significant economic burden
198 Current approaches ascribe variability in hospital readmission primarily to differences in patient
199 optimized, had a significantly lower rate of hospital readmissions, primarily because of fewer heart
202 interventions, from 2011 to 2015, the index hospital readmission rate has declined from 9.6% to 5.3%
208 d hospital discharge within 23 hours, 30-day hospital readmission rate, early (<30 day) and late comp
209 functional status were associated with lower hospital readmission rates across the 6 impairment categ
211 rent efforts to improve health care focus on hospital readmission rates as a marker of quality and on
212 alth care systems, payers, and hospitals use hospital readmission rates as a measure of quality.
213 ospital-level variation among regional index hospital readmission rates as an instrument, instrumenta
215 rvices (CMS) began publicly reporting 30-day hospital readmission rates for patients discharged with
219 is not associated with an increase in 30-day hospital readmission rates or wound complications when c
220 The release of the CMS public reporting of hospital readmission rates was not associated with any m
221 length of stay was 4 days shorter and 30-day hospital readmission rates were 48% lower in the exebaca
223 -called day-case care bundles to reduce high hospital readmission rates with greater care in the comm
225 admissions, length of hospital stay, 30-day hospital readmission rates, and emergency department use
226 nia also had higher 30-day mortality, 30-day hospital readmission rates, and hospital spending per pa
227 ransplant recipients from the calculation of hospital readmission rates, the outcome of their advocac
235 solate hospital effects on risk-standardized hospital-readmission rates, we examined readmission outc
239 and Medicaid Services (CMS) will expand its Hospital Readmission Reduction Program (HRRP) to include
240 ion rates declined after announcement of the Hospital Readmission Reduction Program (HRRP), which pen
242 o assess the rates of readmission before the Hospital Readmission Reduction Program was announced (20
245 icare's value-based purchasing (VBP) and the Hospital Readmissions Reduction Program (HRRP) could dis
248 st improvement after passage of the Medicare Hospital Readmissions Reduction Program (HRRP) is unknow
249 st improvement after passage of the Medicare Hospital Readmissions Reduction Program (HRRP) is unknow
250 pared using the CMS Hospital Compare and the Hospital Readmissions Reduction Program (HRRP) methodolo
252 es centers subject to the first cycle of the Hospital Readmissions Reduction Program between July 1,
253 al penalties were projected according to the Hospital Readmissions Reduction Program formula using on
255 r, respectively, until implementation of the Hospital Readmissions Reduction Program in October 2012
256 S Centers for Medicare and Medicaid Services Hospital Readmissions Reduction Program penalizes hospit
265 ased mortality, discharge to long-term care, hospital readmission, resource utilization, and costs.
270 rce, and a combined measure of ED visits and hospital readmissions termed hospital-based acute care.
271 ong-term mortality, recurrent pneumonia, and hospital readmission, the few reported studies suggest t
274 tcomes of interest (involuntary admission to hospital, readmission to hospital, and inpatient bed day
275 ondary outcomes were number of reoperations, hospital readmissions, total length of hospital stay dur
276 justed HR, 3.2; 95% CI, 1.3-7.8), and 30-day hospital readmission (unadjusted HR, 3.2; 95% CI, 2.0-5.
278 nical medical record review, and fraction of hospital readmissions unrelated to the original hospital
279 gnosis-specific, and potentially preventable hospital readmissions using McNemar's chi-square tests f
281 nt for baseline characteristics, the rate of hospital readmission was 20.5% in women and 11.0% in men
283 s hospitalized with CHF at increased risk of hospital readmission were randomized to a multidisciplin
289 cal site infection, anastomotic leakage, and hospital readmission when compared to no preoperative bo
290 gan dysfunction, mortality, reoperation, and hospital readmission, with estimated population attribut
291 ith increased resource utilization including hospital readmissions, with many due to an ambulatory ca
293 % CI 1.10-1.47), a 54% increase in odds of a hospital readmission within 30 days (95% CI 1.25-2.88),
294 ov 15, 2011, we assessed patients who needed hospital readmission within 30 days after open abdominal
295 ion, 409 (14%) and 1364 (47%) had at least 1 hospital readmission within 30 days and 1 year of the in
300 absolute rates of adverse outcomes, such as hospital readmission, worsening functional status, and w