A Smart Simulator for Metrics-based Cannulation Skills Training for Hemodialysis
A Smart Simulator for Metrics-based Cannulation Skills Training for Hemodialysis
批准号:
10830667
负责人:
Lydia Petersen
金额:
$31.21万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
已结题
起止时间:
2023-09-15 至 2024-09-14
关键词:
AmericanAnatomyAnxietyArteriovenous fistulaAssessment toolBlood VesselsCannulationsCare given by nursesCaringCathetersClient satisfactionClinicClinicalComplexComplicationComputer softwareCountryCredentialingDataDependenceDetectionDevicesDialysis procedureEducationEnd stage renal failureEngineeringExcisionExposure toFeedbackFistulaGuidelinesHemodialysisHemorrhageHuman ResourcesIndustryInfiltrationInjuryLearningLinkMaintenanceMeasuresMechanicsMedical Care CostsMinorModelingMorbidity - disease rateNeedlesOutcomePatient CarePatient-Focused OutcomesPatientsPerforationPhaseProceduresProcessPsychological TransferResearchRiskSmall Business Innovation Research GrantSmall Business Technology Transfer ResearchSourceSouth CarolinaStandardizationStructureTechniquesTechnologyTestingTimeTrainingaging populationarmclinically relevantcomorbiditydesignexperienceimprovedmodels and simulationmortalityneglectpilot testprototypesensorskillsskills trainingtoolultrasoundusability
中文摘要
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英文摘要
Project Summary
About 750,000 Americans and approx. 4.5 million patients worldwide have End-Stage Renal Disease (ESRD)1–
3. Aging population as well as rise in ESRD-related comorbidities are key factors in the anticipated rate of
increase in patients with ESRD4. One of the primary causes for this high morbidity and mortality are the
complications associated with maintaining a functioning vascular access5–7. An important and potentially
avoidable complication is injury to the arteriovenous fistula (AVF) at the time of cannulation, which is performed
in the dialysis clinics three times per week for patients on hemodialysis8. During cannulation needles can be
inserted in such a way that the fistula or graft vessel wall is perforated causing an “infiltration”11, potentially
resulting in a patient not being able to dialyze or even losing the vascular access. As such, the current state of
cannulation has been dubbed the “Achilles Heel” of vascular access in ESKD. Due to high industry turnover,
lack of proficiency assessment tools, and, most importantly, a lack of effective training tools, expertise and
proficiency varies among workers performing cannulation. Many training tools exist, such as “low-tech
mannikins (e.g. “fake arms”), ultrasound-compatible models (e.g. Blue Phantom Vascular Access), and “high-
tech” simulators. The problems with available tools include: 1) no currently available effective trainers that are
specific hemodialysis cannulation, 2) lack of realism in current simulators diminishes their educational value,
and 3) absence of metrics for skill assessment and training. Sojourn MedTech is developing the CanSim
simulator, a smart, personalized, and dialysis-specific trainer for learning cannulation skills that are critical for
dialysis nurses and patient care technicians (PCTs). The need for this hardware and software integrated
device arises from the large number of routine cannulation injuries (and resultant complications) that occur
daily in clinics across the country. CanSim will not only substantially improve patient outcomes, it will also
enable a more confident dialysis workforce as well as positively impact patient experience. CanSim
technology is based on more than seven years of extensive research on the original prototype(s) of the
device15–17, with data from >80 novice and experienced cannulators. Results for various studies have resulted
in validated metrics for quantifying cannulation skill18–21 using simulation models and motivate the design and
testing of the commercial CanSim devices— the objective of this STTR Phase 1 proposal. The primary
features of the CanSim are as follows: 1. Dialysis-specific, 2. Realistic and low-maintenance design, and
3. Metrics-based personalized feedback. During Phase I, we will complete the following aims: 1) We will
engineer and refine key components of our hardware (and associated firmware) to be integrated into the first
CanSim commercial products and 2) We will create and test a model for assessing quality of a user’s
cannulation attempts on the simulator via objective metrics. Results will provide the basis for a full assessment
of the CamSim commercial product in Phase II.
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