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Using the TURF Framework to Design an Enhanced Dosimetry Quality Assurance Checklist in an Academic Medical Center

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Design, User Experience, and Usability (HCII 2023)

Abstract

Academic radiation oncology centers have a long history of developing in-house quality assurance (QA) checklists to promote patient safety. These checklists are designed without utilizing formal human-computer interaction methods and are deployed without robust usability evaluation. We applied the Task, User, Representation, and Function (TURF) framework to identify design changes to a dosimetry QA checklist currently deployed in our institution. We found that the TURF framework provided great insights to improve the usability of QA checklists.

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Acknowledgments

We thank the dosimetrists, physicists, and clinic leadership of our department for their support of our research efforts.

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Correspondence to Karthik Adapa .

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Appendix I

Appendix I

Procedural QA task

MOSAIQ (MQ)

Taxonomy Clf. **

RayStation (RS)

Taxonomy Clf. **

QA checklist

Taxonomy Clf. **

CT level 1

CT level 2

CT level 1

CT level 2

CT level 3

CT level 1

CT level 2

DOB and Age: Check if DOB of the patient is same in both Mosaiq and RS

1.Select patient

1.1 Click on Facesheet

Perceptual ability

1. Select patient data management

1.1 Click patient information

 

Perceptual ability

1.Compare DOB information from MQ and RS

1.1 Select appropriate option

Analysis

 

1.2 Retain the patient’s DOB in working memory

Knowledge

 

1.2 Retain the patient's DOB in working memory

 

Knowledge

   

Pacemaker: Check if pacemaker is assessed as present? If pacemaker present is ROI contoured?

1. Select assessments

1.1 View simulation directive

Perceptual ability

1. Select ROI tab

1.1 Skip targets

 

Perceptual ability

1.Compare most recent pacemaker assessment in MQ with presence of ROI and contours for pacemaker in RS

1.1 Select appropriate option

Evaluation

 

1.2 Check if pacemaker has been assessed

Comprehension

 

1.2 Look for pacemaker in OARs

1.2.1 If pacemaker ROI exists, check for contours

Perceptual ability

   
 

1.3 Retain the date of assessment

Knowledge

 

1.3 Look for pacemaker in unknowns

1.3.1 If pacemaker ROI exists, check for contours

Perceptual ability

   
 

1.4 Only the most recent date of assessment is important

Evaluation

 

1.4 Retain informatiion about ROI and contours

 

Knowledge

   

Rx vs Planning note: Check if prescription is MQ is identical to plan information on RS

1. Select navigator

1.1 Click Tx plan

Perceptual ability

1. Select plan design

1.1 Select the beamset

 

Perceptual ability

1.Compare the Rx in MQ with dose, fractions, energy and modality in RS and see if dose constraints has been met

1.1 Select appropriate option

Evaluation

 

1.2 Retain the content of the note in working memory (dose, fraction, primary site, secondary site etc.)

Knowledge

 

1.2 Look for dose, fraction, energy and modality (all located in different tables) Retain the content about fraction,

 

Perceptual ability

   
    

1.3 Retain the information about fraction, dose, fraction, energy and modality (all located in different tables) in working memory

 

Knowledge

   
   

2. Select plan evaluation

2.1 Look for PTV and see if dose constraints were met

 

Perceptual ability

   

QCL Finance: IMRT/SBRT pre-auth

1. Select QCL or navigator

1.1 Add filter for pre-auth

Perceptual ability

    

1.Ensure QCL is complete, assessment is recent and completed by authorized user

1.1 Select appropriate option

Analysis

 

1.2 Double click or scan the entire breadth of list of columns

Perceptual ability

       
 

1.3 Confirm that information is complete, and date is fresh for this QCL

Analysis and Knowledge

       
  1. *CT – Cognitive Task.
  2. * * Taxonomy cf. – Taxonomy Classification.

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Adapa, K. et al. (2023). Using the TURF Framework to Design an Enhanced Dosimetry Quality Assurance Checklist in an Academic Medical Center. In: Marcus, A., Rosenzweig, E., Soares, M.M. (eds) Design, User Experience, and Usability. HCII 2023. Lecture Notes in Computer Science, vol 14034. Springer, Cham. https://doi.org/10.1007/978-3-031-35705-3_18

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  • DOI: https://doi.org/10.1007/978-3-031-35705-3_18

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