1. Introduction
Improved chronic disease management has contributed to an aging population living with multiple chronic medical conditions. The 2018 National Health Interview Survey estimates that 51.8% of adults in the United States have at least one chronic medical condition and 27.2% have two or more [
1,
2].
Hospitalist co-management (HCM) has demonstrated more consistent management of medical comorbidities and improved perioperative outcomes in vascular, colorectal, and orthopedic surgery patient populations [
3]. The primary benefits of HCM are prevention and early diagnosis and management of medical complications [
4]. However, the hospitalist model has also been shown to reduce the cost, mortality, and length of stay (LOS) and improve quality and safety measures [
5]. Currently, there is little evidence that supports hospitalist co-management in urology, especially for rare pathologies such as urethral stricture disease (USD).
In this retrospective cohort analysis of a prospectively maintained USD database, we sought to evaluate whether the implementation of hospitalist co-management and a standardized postoperative care plan would lead to the improved management of chronic medical conditions and perioperative outcomes in male patients undergoing urethroplasty (UPL) with a single surgeon for USD at an academic quaternary care center.
2. Methods
In August 2019, hospitalist co-management and a standardized postoperative care plan were implemented for male urology patients undergoing UPL. The model was created to streamline admission and postoperative care. All UPL patients were co-managed by the primary urologist and an internal medicine team, which included residents and advanced practice providers including house staff, physician assistants, consultants, social workers, and case managers. Delegation of responsibilities between the two groups is shown in (
Table 1). Consultants, social workers, and case managers were readily available on an as-needed basis.
We retrospectively reviewed a prospectively gathered database of male patients who were evaluated for USD by a single surgeon at an academic quaternary care center (Dell Seton Medical Center at the University of Texas, Austin, TX, USA) from 2016 to March 2022. A total of 283 males were evaluated for USD. Those who were treated with an intervention other than UPL or who had an outpatient UPL were excluded from this study. Those who had a UPL between August 2016 to August 2019 were included in the surgeon-managed group (n = 71) and those who had a UPL between August 2019 and March 2022 were included in the co-management group (n = 64).
In the surgeon-managed group, the urologist was responsible for all aspects of perioperative care including the management of chronic medical conditions such as performing the medication reconciliation and blood pressure control. In the co-managed group, the urologist managed the surgical and urologic aspects of care including the code status, diet, foley catheter directives, surgical site evaluation, and arranging necessary follow-up. Hospitalists performed medication reconciliation; managed chronic medical conditions and pain; and contributed to the disposition and discharge planning. Interdisciplinary rounds were conducted daily by the urology team and internal medicine team for the coordination of care.
Demographic, clinical, surgical, and perioperative outcome variables were compared between these cohorts: age, ethnicity, American Society of Anesthesiologists (ASA) score, Body Mass Index (BMI), insurance type, Charlson Comorbidity Index (CCI), Voiding Cystourethrogram (VCUG), and operative details such as type of UPL and length of the stricture.
We also reviewed the patient charts for outcome variables including length of stay (LOS); mean blood pressure on arrival and before discharge (Mean Blood Pressure = Diastolic Pressure + 1/3 (Systolic Pressure-Diastolic Pressure)) [
6]; 90-day postoperative complications as classified by the Clavien-Dindo scale; stricture recurrence, which is defined as having a stricture not passable with a 17f cystoscope [
7,
8]; 30-day emergency room visits; hospital readmissions; and infection within 15 days of surgery.
Data was stored on the Research Electronic Data Capture (REDCap, Vanderbilt, Nashville, TN, USA) system, an internet-based HIPAA-compliant data collection tool. To seek the factors associated with the co-management model and recurrence, we performed Chi-square or Fisher-exact tests for independent variables that are categorical. For continuous variables,
T-tests were used if the distribution of the independent variable was parametric, otherwise, Wilcoxon-Mann-Whitney tests were used for non-parametric data (
Appendix A). Variables with
p-values less than 0.10 were examined to identify factors associated to the recurrence rate. These variables were included in the multivariable analysis, where a significance level of a
p-value below 0.05 was used to determine the statistical significance.
Power analysis indicated that a minimum sample size of 75 patients would provide 90% statistical power with alpha set at 0.05. This was based on a regression with five predictors and the assumption that the change in cognitive bias measures would account for 5% or more of the variability in patient ratings and the complete model would account for at least 15% variability.
3. Results
In bivariate analysis, there was no significant difference between the co-management group and the surgeon group in terms of the baseline variables (
Table 2). Of the 71 men who were managed by surgeon only, 38% (27) underwent an anterior anastomosis UPL and 34% (24) had substitution buccal graft UPL, while 17% (11) and 55% (35) of the co-management group had anterior anastomosis and substitutional BMG graft, respectively (
p-value = 0.014).
The total LOS remained low with a median of one day in both groups. The mean blood pressure recorded on the morning of arrival was the same between the two groups. Moreover, the mean blood pressure obtained at their discharge was similar in both groups, 87.1 ± 10.7 vs. 89.3 ± 9.9 (p-value = 0.22).
Postoperatively in the surgeon-managed group, 73% of patients were complication-free within 90 days while 20% (14) visited the emergency department within one month and 11% (8) were admitted within 30 days of reoperation. Within a 15-day follow-up period, 14% (10) of the surgeon-only managed patients had a genitourinary infection. In the co-management group, 66% were complication-free, 25% (16) visited the emergency room within 30 days, 17% (11) of all the patients had an infection, and 16% (10) were readmitted, which was not significantly different (
Table 3).
Accounting for confounding variables using logistic regression, no factors were independently associated with recurrence (all
p-values greater than 0.05) (
Table 4).
4. Discussion
In previous studies, the hospitalist’s role in managing perioperative patients has been well defined in the fields of orthopedics, vascular surgery, and neurosurgery [
9,
10,
11]. In these studies, patients were hospitalized for a longer time. Even though our UPL patients stayed at the hospital for a short time, our study examining the Peri UPL responsibilities of the co-management team, consisting of internal medicine doctors, physician assistants, consultants, social workers, and case managers working closely with the urologic surgeon, is unique.
Among the co-management UPL patients, the infection rates, postoperative emergency visits, and readmission rates within 30 days remained low after the appliance of the new approach. Moreover, the blood pressure, an indicator of medical reconciliation especially in the elderly, was not significantly different. Another study that implemented co-management in a neurosurgical department revealed that the readmission rate and LOS did not make a significant difference. However, their healthcare team reported perceived improvement in care quality [
12]. Our result was consistent with the result from many other published data on co-management, including a meta-analysis that reviewed different surgeries [
13]. Another institute that studied the co-management in a neurosurgical setting had an unchanged number of 30-day readmission and mortality [
14].
The finding that there was no significant difference in the recurrence rates between patients managed by hospitalists and those managed by surgeons suggests that hospitalist care may be non-inferior to surgeon care for patients undergoing treatment for urethroplasty. This may have the added benefit of reducing the workload of surgeons.
The length of stay remained the same in the co-management group. This is likely attributable to the low number of UPL patients that spend the night. Although patients in the co-management group had a mean age of 60 (47–74) and 98% of them had ASA > 1, it did not extend hospitalization. There are numerous possible explanations for the unchanged LOS range. One could be the fact that the UPL is minimally invasive and extracorporeal; therefore, UPL patients were less affected by postoperative pain and other criteria that prolong discharge. More invasive and complicated operations have been studied which resulted in an increase in LOS [
3,
15].
There were several strengths in our study. We were able to prospectively collect all the data regarding patients’ complications and surgical outcomes in the five years. Moreover, we measured factors associated with the patient’s health such as blood pressure and ASA.
Several inherent limitations to our study, including a short LOS and same-day discharge, prevented a large sample size to evaluate the patients for blood pressure properly after the medication reconciliation. In addition, universal medical records to check for postoperative infection of out-of-network ER visits do not exist; therefore, there might be some underreporting of these events.
5. Conclusions
This study suggests that hospitalist care for patients undergoing urethroplasty may be non-inferior to surgeon care, based on the similar outcomes between the two groups. There were no significant differences in the total length of stay or blood pressure readings, and the complication rates and hospital readmission rates were also similar.
Author Contributions
Conceptualization, E.C.O. and P.T.; Methodology, E.C.O. and P.T.; Software, P.T., A.T., S.G. and S.-H.B.; Validation, E.C.O. and A.T.; formal analysis, P.T.; Original draft preparation, P.T.; Review and editing, E.C.O., A.T., S.G. and S.-H.B.; Supervision, E.C.O. All authors have read and agreed to the published version of the manuscript.
Funding
This research received no external funding.
Institutional Review Board Statement
The IRB determined that this protocol meets the criteria for exemption from IRB review. Study number is: STUDY00001430.
Informed Consent Statement
The IRB waives the requirement to obtain subject authorization for use of PHI and alters or waives the requirement to obtain prior authorization of the individuals.
Data Availability Statement
The data presented in this study are available on request from the corresponding author. The data are not publicly available due to PHI protection issue.
Conflicts of Interest
The authors declare no conflict of interest.
Appendix A
Table A1.
Bivariate Analysis of Factors Associated with Recurrence.
Table A1.
Bivariate Analysis of Factors Associated with Recurrence.
| Recurrence | p Value |
---|
No | Yes |
---|
Smoker | | | 0.77 |
Never | 78% (72) | 72% (26) | |
Current | 4% (4) | 6% (2) | |
Quit | 17% (16) | 22% (8) | |
Alcohol | | | 0.05 |
Not having | 43% (39) | 69% (24) | |
≤2 per day | 51% (46) | 31% (11) | |
>2 per day | 4% (4) | 0% (0) | |
Quit | 0% (2) | 0% (0) | |
Hispanic | 22% (22) | 24% (9) | 0.82 |
Race | | | 0.59 |
White | 90% (88) | 86% (32) | |
Other | 10% (10) | 14% (5) | |
Insurance | | | 0.32 |
No insurance | 6% (6) | 11% (4) | |
Medicaid | 6% (6) | 0% (0) | |
Medicare | 27% (26) | 38% (14) | |
Private | 14% (14) | 11% (4) | |
Other | 47% (46) | 41% (15) | |
ASA | | | 0.41 |
1 | 7% (7) | 0% (0) | |
2 | 60% (56) | 64% (23) | |
3 | 31% (29) | 33% (12) | |
4 | 2% (2) | 3% (1) | |
Recreational drug | 6% (6) | 3% (1) | 0.42 |
Operation technique | | | 0.08 |
Anterior Anastomosis | 28% (27) | 30% (11) | |
Substitution graft | 49% (48) | 30% (11) | |
Other technique | 23% (23) | 41% (15) | |
Continuous Variables | | | |
Age | 56 (44–71) | 63 (54–72) | 0.09 |
Surgery duration | 170 (135–200) | 158 (125–205) | 0.42 |
Stricture length | 2 (1–5) | 2 (1–5) | 0.98 |
LOS | 1 (1–1) | 1 (1–1) | 0.49 |
Mean arrival BP | 98 (90–106) | 98 (91–107) | 0.54 |
Last mean BP | 89 (80–95) | 89 (83–96) | 0.28 |
CCI | 2 (0–3) | 2 (1–4) | 0.20 |
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Table 1.
Responsibility Delegation.
Table 1.
Responsibility Delegation.
Developed by Urology and IM * | Urology | Yellow Team | Comments |
---|
Admission status order | X | | Urology knows procedure, estimated LOS, etc. |
Code status | X | | Urology would address prior to OR. |
Diet/Vitals | X | ERAS |
Activity | | X | |
Lines/Tubes | X | | To specify Cath/Tube instructions. |
| | | (bladder scan, etc.) |
DVT prophylaxis | X | Urology to let IM know if the patient requires chemical prophylaxis, otherwise, SCDs ** and ambulation ordered for all patients. |
Intravenous fluid | X | |
Pain management | X | IM writes all discharge prescriptions including triplicates. |
Labs | X | X | IM will order CBC/bmp *** next morning if admitted. |
Imaging | X | X | |
Case Management Consult | X | | |
Rehab Consult | X | X | |
Home Medication History—conducted by nursing |
Admission Medication Reconciliation | X | |
Discharge Medication Reconciliation | X | |
Discharge Order Initiation | X | |
Discharge Instruction | X | X | |
Discharge Appointment | X | | |
Table 2.
Baseline variables.
Table 2.
Baseline variables.
| Co-Management | |
---|
Mean Characteristics (±SD) | No | Yes | p Value |
---|
Age | 57 (44–69) | 60 (47–74) | 0.12 |
BMI | 29.4 ± 7.9 | 30.0 ± 6.8 | 0.61 |
CCI | 2 (0–3) | 2 (0.5–4.5) | 0.33 |
Mean BP at arrival | 99.7 ± 11.8 | 97.5 ± 10.3 | 0.26 |
Stricture length | 2 (1–5) | 3.5 (1–5) | 0.10 |
Race | | | 0.54 |
White | 87% (62) | 91% (58) | |
Other | 13% (9) | 9% (6) | |
Hispanic | | | 0.90 |
No | 77% (55) | 77% (49) | |
Yes | 23% (16) | 23% (15) | |
ASA | | | 0.14 |
1 | 9% (6) | 2% (1) | |
2 | 64% (45) | 57% (34) | |
3 | 26% (18) | 38% (23) | |
4 | 1% (1) | 3% (2) | |
Insurance | | | 0.46 |
No insurance | 10% (7) | 5% (3) | |
Medicaid | 3% (2) | 6% (4) | |
Medicare | 25% (18) | 34% (22) | |
Private | 13% (9) | 14% (9) | |
Other | 49% (35) | 41% (26) | |
Operation technique | | | 0.014 |
Anterior anastomosis | 38% (27) | 17% (11) | |
Substitution graft | 34% (24) | 55% (35) | |
Other technique | 28% (20) | 28% (18) | |
Alcohol | | | 0.19 |
Not Using | 58% (41) | 40% (22) | |
≤2 per day | 39% (28) | 53% (29) | |
>2 per day | 1% (1) | 5% (3) | |
Quit | 1% (1) | 2% (1) | |
Smoker | | | 0.95 |
Never | 77% (55) | 75% (43) | |
Current | 4% (3) | 5% (3) | |
Quit | 18% (13) | 19% (11) | |
Table 3.
Bivariate analysis of Co-management Hospitalist Care on Mean Blood Pressure at the time of Discharge, Rate of Post-Operation Complication within 90 days, Infection within 15 days, Recurrence, Readmission and Emergency visit within 30 days, VCUG, and LOS.
Table 3.
Bivariate analysis of Co-management Hospitalist Care on Mean Blood Pressure at the time of Discharge, Rate of Post-Operation Complication within 90 days, Infection within 15 days, Recurrence, Readmission and Emergency visit within 30 days, VCUG, and LOS.
| Surgeon Only | Co-Management Support | p Value |
---|
Mean BP at discharge | 87.1 ± 10.7 | 89.3 ± 9.9 | 0.22 |
Clavien-Dindo score | | | 0.30 |
No complication | 73% (52) | 66% (42) | |
grade 1 | 3% (2) | 3% (2) | |
grade 2 | 21% (15) | 20% (13) | |
grade 3a | 3% (2) | 11% (7) | |
Re-admission within 30 days | | 0.46 |
Yes | 11% (8) | 16% (10) | |
Infection within 15 days | | | 0.62 |
Yes | 14% (10) | 17% (11) | |
Emergency visit within 30 days | | 0.46 |
Yes | 20% (14) | 25% (16) | |
Recurrence | | 0.032 |
Yes | 35% (25) | 19% (12) | |
VCUG after 1 month | | 0.33 |
Normal | 82% (58) | 69% (44) | |
Extravasation | 1% (1) | 8% (5) | |
Restenosis | 1% (1) | 2% (1) | |
Fistula | 1% (1) | 2% (1) | |
Not done | 14% (10) | 20% (13) | |
LOS | 1 (1–1) | 1 (1–1) | 0.79 |
Table 4.
Logistic Regression of factors associated with recurrence.
Table 4.
Logistic Regression of factors associated with recurrence.
Variable (Reference) | Odd’s Ratio (95% Confidence Interval) | Standard Error | p Value |
---|
Co-management Hospitalist Care (No) | | |
Yes | 0.47 (0.18 to 1.17) | 0.22 | 0.11 |
Alcohol Use (Does not Consume) | | | |
≤2perday | 0.47 (0.20 to 1.14) | 0.21 | 0.094 |
Operation technique (Other technique) | | | |
Anterior anastomosis | 0.73 (0.25 to 2.16) | 0.40 | 0.57 |
Substitution graft | 0.41 (0.15 to 1.16) | 0.22 | 0.093 |
Age | 1.02 (0.99 to 1.05) | 0.01 | 0.11 |
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