Verification is an integral stage of the system engineering process, partially to capture human errors during the process. There is, however, seemingly less attention given to the potential human errors caused by verification engineers themselves, that is, errors that result from ineffective verification planning and/or execution. We focus on two sets of possible cognitive overloads during the verification process: short term overloads during each verification event and long-term overloads over the system lifecycle. A graph-based mathematical approach is proposed to lower such cognitive overloads, utilizing orthogonality and graphical representation. The research is in progress, with theoretical and empirical validations remaining. Practical engineering considerations will be added to finalize the proposed approach, which will then go through an empirical study for validation.
@inproceedings{jung2024,
author = {Jung, Sukhwan and Salado, Alejandro},
editor = {Masson, Dimitri},
publisher = {INCOSE},
title = {Cognitive {Load} {Management} for {Planning} and {Executing}
{Verification} {Strategies}},
booktitle = {Proceedings International Conference on Human Systems
Integration},
volume = {3},
date = {2024-08-29},
url = {https://hsi-wg.github.io/conferences/HSI2024/proceedings/cognitive-load-management-for-planning-and-executing-verification-strategies.html},
doi = {10.65351/hsi24.009},
langid = {en},
abstract = {Verification is an integral stage of the system
engineering process, partially to capture human errors during the
process. There is, however, seemingly less attention given to the
potential human errors caused by verification engineers themselves,
that is, errors that result from ineffective verification planning
and/or execution. We focus on two sets of possible cognitive
overloads during the verification process: short term overloads
during each verification event and long-term overloads over the
system lifecycle. A graph-based mathematical approach is proposed to
lower such cognitive overloads, utilizing orthogonality and
graphical representation. The research is in progress, with
theoretical and empirical validations remaining. Practical
engineering considerations will be added to finalize the proposed
approach, which will then go through an empirical study for
validation.}
}
For attribution, please cite this work as:
Jung, Sukhwan, and Alejandro Salado. 2024. “Cognitive Load
Management for Planning and Executing Verification Strategies.”
In Proceedings International Conference on Human Systems
Integration, edited by Dimitri Masson. Vol. 3. INCOSE. https://doi.org/10.65351/hsi24.009.