James Paul

Dr. James Paul

orcid

Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 March 2013 in The Journal of Arthroplasty
Verified
Journal Article
Closed access
DWDale Williams
Dale Williams
DPDanielle Petruccelli
Danielle Petruccelli
JPJames Paul
James Paul
LPLiz Piccirillo
Liz Piccirillo
MWMitch Winemaker
Mitch Winemaker
JBJustin de Beer
Justin de Beer

11 January 2022 in Drug and Alcohol Dependence
Verified
Journal Article
Closed access
LNLeen Naji
Leen Naji
BDBrittany Dennis
Brittany Dennis
TRTea Rosic
Tea Rosic
WWWojtek Wiercioch
Wojtek Wiercioch
JPJames Paul
James Paul
ZSZainab Samaan
Zainab Samaan

14 March 2015 in Canadian Journal of Anesthesia/Journal canadien d'anesthésie
Verified
Journal Article
Closed access
PDF file
JPJames Paul
James Paul
MNManyat Nantha-Aree
Manyat Nantha-Aree
NBNorman Buckley
Norman Buckley
USUswa Shahzad
Uswa Shahzad
JCJi Cheng
Ji Cheng
VAVictoria Avram
Victoria Avram

1 August 2018 in Journal of Cardiothoracic and Vascular Anesthesia
Verified
Journal Article
Closed access
HSHarsha Shanthanna
Harsha Shanthanna
PMPeter Moisuik
Peter Moisuik
TOTurlough O’hAre
Turlough O’hAre
SSSadeesh K. Srinathan
Sadeesh K. Srinathan
CFChristian Finley
Christian Finley
PSPeter Slinger
Peter Slinger

26 February 2019 in Pilot and Feasibility Studies
Verified
Journal Article
Open access
PDF file
JPJames Paul
James Paul
MCMatthew A. Chong
Matthew A. Chong
NBNorman Buckley
Norman Buckley
PHPrathiba Harsha
Prathiba Harsha
HSHarsha Shanthanna
Harsha Shanthanna
LTLehana Thabane
Lehana Thabane
Respiratory depression is a serious perioperative complication associated with morbidity and mortality. Recently, technology has become available to wirelessly monitor patients on regular surgical wards with continuous pulse oximetry and wireless clinician notification with alarms. When a patient’s SpO2 falls below a set threshold, the clinician is notified via a pager and may intervene earlier to prevent further clinical deterioration. To date, the technology has not been evaluated with a randomized controlled trial (RCT). We designed a parallel-group unblinded pilot RCT of a wireless monitoring system on two surgical wards in an academic teaching hospital. Postsurgical patients with an anticipated length of stay of at least 1 day were included and randomized to standard care or standard care plus wireless respiratory monitoring for up to a 72-h period. The primary outcomes were feasibility outcomes: average patients recruited per week and tolerability of the system by patients. Secondary outcomes included (1) respiratory events (naloxone administration for respiratory depression, ICU transfers, and cardiac arrest team activation) and (2) system alarm types and details. The analysis of the outcomes was based on descriptive statistics and estimates reported using point (95% confidence intervals). Criteria for success of feasibility were recruitment of an average of 15 patients/week and 90% of the patients tolerating the system. The pilot trial enrolled 250 of the 335 patients screened for eligibility, with 126 and 124 patients entering the standard monitoring and wireless groups, respectively. Baseline demographics were similar between groups, except for slightly more women in the wireless group. Average patient recruitment per week was 14 95% CI [12, 16] patients. The wireless monitoring was quite tolerable with 86.6% (95% CI 78.2–92.7%) of patients completing the full course, and there were no other adverse events directly attributable to the monitoring. With regard to secondary outcomes, the respiratory event rate was low with only 1 event in the wireless group and none in the control group. The average number of alarms per week was 4.0 (95% CI, 1.6–6.4). This pilot study demonstrated adequate patient recruitment and high tolerability of the wireless monitoring system. A full RCT that is powered to detect patient important outcomes such as respiratory depression is now underway. ClinicalTrials.gov, Registration number NCT02907255 , registered 7 September 2016—retrospectively registered.

28 October 2019 in JMIR Medical Informatics
Verified
Journal Article
Open access
PHPrathiba Harsha
Prathiba Harsha
JPJames Paul
James Paul
MCMatthew A Chong
Matthew A Chong
NBNorm Buckley
Norm Buckley
ATAntonella Tidy
Antonella Tidy
LTLehana Thabane
Lehana Thabane
Background: Research has shown that introducing electronic Health (eHealth) patient monitoring interventions can improve healthcare efficiency and clinical outcomes. The VIGILANCE (VItal siGns monItoring with continuous puLse oximetry And wireless cliNiCian notification aftEr surgery) study was a randomized controlled trial (n=2049) designed to assess the impact of continuous vital sign monitoring with alerts sent to nursing staff when respiratory resuscitations with naloxone, code blues, and intensive care unit transfers occurred in a cohort of postsurgical patients in a ward setting. This report identifies and evaluates key issues and challenges associated with introducing wireless monitoring systems into complex hospital infrastructure during the VIGILANCE eHealth intervention implementation. Potential solutions and suggestions for future implementation research are presented. Objective: The goals of this study were to: (1) identify issues related to the deployment of the eHealth intervention system of the VIGILANCE study; and (2) evaluate the influence of these issues on intervention adoption. Methods: During the VIGILANCE study, issues affecting the implementation of the eHealth intervention were documented on case report forms, alarm event forms, and a nursing user feedback questionnaire. These data were collated by the research and nursing personnel and submitted to the research coordinator. In this evaluation report, the clinical adoption framework was used as a guide to organize the identified issues and evaluate their impact. Results: Using the clinical adoption framework, we identified issues within the framework dimensions of people, organization, and implementation at the meso level, as well as standards and funding issues at the macro level. Key issues included: nursing workflow changes with blank alarm forms (24/1030, 2.33%) and missing alarm forms (236/1030, 22.91%), patient withdrawal (110/1030, 10.68%), wireless network connectivity, false alarms (318/1030, 30.87%), monitor malfunction (36/1030, 3.49%), probe issues (16/1030, 1.55%), and wireless network standards. At the micro level, these issues affected the quality of the service in terms of support provided, the quality of the information yielded by the monitors, and the functionality, reliability, and performance of the monitoring system. As a result, these issues impacted access through the decreased ability of nurses to make complete use of the monitors, impacted care quality of the trial intervention through decreased effectiveness, and impacted productivity through interference in the coordination of care, thus decreasing clinical adoption of the monitoring system. Conclusions: Patient monitoring with eHealth technology in surgical wards has the potential to improve patient outcomes. However, proper planning that includes engagement of front-line nurses, installation of appropriate wireless network infrastructure, and use of comfortable cableless devices is required to maximize the potential of eHealth monitoring. Trial Registration: ClinicalTrials.gov NCT02907255; https://clinicaltrials.gov/ct2/show/NCT02907255