Abstract
This research introduces a Digital Human Modeling (DHM) based early design framework to automate task analysis and workplace ergonomics for emergencies and provides a proof-of-concept demonstration of the automation framework within the context of cockpit fire and smoke case study. DHM brings significant advantages to explore human-centered design issues by enabling human-product or human-environment interaction analysis within a computer or virtual environment. However, a substantial problem in designing with DHM is the reliance on manual methods during simulation setup and ergonomics analysis. A majority of the DHM workflow requires user input via controllers such as a keyboard, mouse, or wand. Manually creating DHM simulation involves tedious object orientation and task manipulations, which add extra time and effort and decrease the usefulness of DHM as an early design solution. Moreover, DHM design studies within the transportation domain often focus on ergonomics evaluations of tasks that occur in ideal or nearly ideal settings. There is a lack of DHM design tools that concentrate on emergencies. The case study depicted in this paper aims to implement a proactive ergonomics approach via the automation framework to assess reach gap and percent loss in luminance issues in cockpit smoke and fire emergencies. Overall, this research demonstrates how the proposed automation framework automates existing DHM toolkits and extends the capabilities of DHM through third-party technology integration.
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References
Federal Aviation Administration (FAA) Fire safety background page—problem statement. https://www.fire.tc.faa.gov/Research/Background. Last accessed 25 Jan 2021
Shaw J (1999) A review of smoke and potential in-flight fire events in 1999. In: Advances in aviation safety conference & exposition. SAE, Warrendale, pp 1–12
Cherry RGW, Hill R (2017) Research into fire, smoke or fumes occurrences on transport airplanes. Federal Aviation Administration Transport Airplane Directorate
VisionSafe emergency vision assurance system—recent smoke in the cockpit events. https://www.visionsafe.com/recent-smoke-in-the-cockpit-events/. Last accessed 25 Jan 2021
Gawand MS (2019) Automating digital human modeling for task simulation and ergonomic evaluation to consider emergency ergonomics early in design. M.S. Thesis. Oregon State University, Corvallis
Ahmed S, Demirel HO (2020) A framework to assess human performance in normal and emergency situations. ASCE-ASME J Risk and Uncert in Engrg Sys Part B Mech Engrg 6(1)
Demirel HO, Duffy VG (2016) Building quality into design process through digital human modelling. Int J Digit Human 1(2):153–168
Gawand MS, Demirel HO (2020) A design framework to automate task simulation and ergonomic analysis in digital human modeling. In: Duffy V (eds) Digital human modeling and applications in health, safety, ergonomics and risk management. Posture, motion and health. International conference on human-computer interaction (HCII). Lecture notes in computer science, vol 12198. Springer, Cham, pp 50–66
Royal Aeronautical Society (2018) Smoke, fire and fumes in transport aircraft. past history, current risks and recommended mitigations. Royal Aeronautical
Gawand MS, Demirel HO (2020) Extending the capabilities of digital human modeling: a design framework to assess emergencies early in design. In: International mechanical engineering congress & exposition (IMECE). ASME, New York (in-print)
Demirel HO (2015) Modular human-in-the-loop framework based on human factors. Ph.D. dissertation. Purdue University, West Lafayette
Ahmed S, Demirel HO (2019) A comparison between virtual reality and digital human modeling for proactive ergonomic design. In: Duffy V (eds) Digital human modeling and applications in health, safety, ergonomics and risk management. Human body and motion. International conference on human-computer interaction (HCII). Lecture notes in computer science, vol 11581. Springer, Cham
Demirel HO, Duffy VG (2007) Applications of digital human modeling in industry. In: Duffy VG (eds) International conference on digital human modeling. Lecture notes in computer science, vol 4561. Springer, Berlin
Zhang X, Kuo A, Chaffin D (2005) Digital human modeling for computer-aided ergonomics. In: Marras WS, Karwowski W (eds) The occupational ergonomics handbook. CRC Press, Boca Raton, FL, pp 1–20
Fleck JT, Butler FE, Vogel SL (1975) An improved three dimensional computer simulation of motor vehicle crash victims (technical report). Buffalo, NY
Feyen R, Liu Y, Chaffin D, Jimmerson G, Joseph B (2000) Computer-aided ergonomics: a case study of incorporating ergonomics analyses into workplace design. Appl Ergon 31(3):291–300
Blanchonette P (2010) Jack human modelling tool: a review (technical report). Air Operations Division Defense Science and Technology Organization (DSTO), Victoria, Australia
Abdel-Malek K, Arora J, Bhatt R, Farrell K, Murphy C, Kregel K (2019) Santos: an integrated human modeling and simulation platform. In: Scataglini S, Paul G (eds) DHM and Posturography. Elsevier, pp 63–77
Ahmed S, Gawand MS, Irshad L, Demirel HO (2018) Exploring the design space using a surrogate model approach with digital human modeling simulations. In: International design engineering technical conferences and computers and information in engineering conference. ASME, New York
Burian BK (2004) Emergency and abnormal checklist design factors influencing flight crew response: a case study. In: Wilson H (ed) Proceedings of the international conference on human-computer interaction in aeronautics, vol 1. EURISCO International
Airbus worldwide instructor news—flight operations recommendation—adhering to the SMOKE philosophy. https://www.airbus-win.com/wp-content/uploads/2019/06/managing-smoke-and-fumes-in-flight.pdf. Last accessed 27 Jan 2020
Federal Aviation Administration (FAA) (1994) Smoke detection, penetration, and evacuation tests and related flight manual emergency procedures AC 25-9A. In: Advisory circular guideline. FAA, Washington
Porter JM, Gyi DE (1998) Exploring the optimum posture for driver comfort. Int J Veh Des 19(3):255–266
Yuki A, Takeyoshi T, Hidekazu S (2005) Calculation method for visibility of emergency sign in fire taking into account of smoke adherence. Fire Saf Sci 8:1093–1105
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Gawand, M.S., Demirel, H.O. (2023). Task Simulation Automation via Digital Human Models: A Case Study on Cockpit Fire and Smoke Emergencies. In: Duffy, V.G., Landry, S.J., Lee, J.D., Stanton, N. (eds) Human-Automation Interaction. Automation, Collaboration, & E-Services, vol 11. Springer, Cham. https://doi.org/10.1007/978-3-031-10784-9_21
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