Assessment of Air Bag Deployment Loads with the Small Female Hybrid III Dummy

1993 ◽  
Author(s):  
John W. Melvin ◽  
John D. Horsch ◽  
Joseph D. McCleary ◽  
Laura C. Wideman ◽  
Jack L. Jensen ◽  
...  
1999 ◽  
Author(s):  
Anthony Sances

Abstract Human injury tolerance is difficult because of physical differences between humans and animals, dummies and cadaver tissue. Human volunteer testing has been done but at sub injurious levels (Stapp, 1986 and Ewing, 1972). Considerable biomechanical engineering and tissue studies exist for the adult human cadaver however little is available for the pediatric population (Kumaresan, 1999). A number of dummies have recently been made available principally for airbag testing to bridge the gap between the 50 percentile hybrid III male dummy and the 95 percentile male dummy. (Kleinberger. 1998) The air bag dummies including the 12-month old CRABI dummy, 3-year old Hybrid III dummy, 6-year old Hybrid III dummy, the Hybrid III small female, Hybrid II mid-size male and 95 percentile large male are discussed.


2001 ◽  
Author(s):  
Jonathan D. Rupp ◽  
Kathleen Desantis Klinich ◽  
Steve Moss ◽  
Jennifer Zhou ◽  
Mark D. Pearlman ◽  
...  

Author(s):  
S M Duma ◽  
J R Crandall ◽  
W D Pilkey ◽  
K Seki ◽  
T Aoki

This paper presents the results from experiments designed to characterize the upper extremity response of the small female during side air bag loading. A seat-mounted thoracic side air bag was deployed statically using three different inflators. The aggressivity of the inflators varied in peak pressure and pressure onset rate. The fifth percentile female HIII dummy was utilized in three positions, which were chosen to maximize loading of the humerus and elbow joint. Two had the dummy positioned outboard with the forearm on the armrest, and the third had the dummy inboard such that the humerus was positioned horizontally in front of the air bag module with the forearm supported above the armrest. Instrumentation for the fifth percentile female dummy included the fully instrumented SAE upper extremity with six axis load cells in the humerus and forearm as well as accelerometers and angular rate sensors attached to each segment. All inflators produced resultant humerus moments below published injury tolerance values for the small female, with the more aggressive air bags producing higher responses. The upper extremity proved useful in evaluating injury risk relative to side air bag design.


Author(s):  
Kelly Bosch ◽  
Katrina Harris ◽  
David Clark ◽  
Risa Scherer ◽  
Joseph Melotik

To address the lack of knowledge on the quantitative effects of Personal Protective Equipment (PPE) on the small occupant, 55 drop tower tests were conducted and the resulting responses were evaluated. A previous technical publication evaluated the results of drop tower testing of twelve models of blast energy-attenuating seats1. That study assessed the data recorded from three sizes of anthropomorphic test devices, or ATDs, including the Hybrid III 5th percentile female, the Hybrid III 50th percentile male, and the Hybrid III 95th percentile male. The forces, moments, and accelerations from the ATDs were compared to Injury Assessment Reference Values (IARVs) to validate the drop tower methodology and to evaluate the appropriateness of the IARVs developed for the three occupant sizes. The data review revealed that the maximum lumbar compression loads recorded by the ATDs was an effective “go/no-go” criteria for judging seat performance, and that the 5th percentile female ATD, or small occupant, was the most difficult to pass the corresponding lumbar compression IARV. Additionally, the 5th percentile female ATD exceeded its corresponding IARV for upper neck compression, leading to the motivation for this study; the data set from the previous technical publication was used in this study. Historically, blast mitigation seats are designed to accommodate the average sized occupant, or 50th percentile male. Moving forward, there is a new emphasis on extending the protection afforded to the full military population, including the small female. The data presented in this paper seeks to determine the effect of PPE on the lumbar compression and upper neck loads for the small occupant.


2008 ◽  
Author(s):  
Jason D. Jenkins ◽  
Emad Al-Tabakha ◽  
John D. Below ◽  
Paul J. Depinet ◽  
Virginia L. Watters

2000 ◽  
Vol 2 (1) ◽  
pp. 45-61
Author(s):  
Stefan M. Duma ◽  
Jeff R. Crandall ◽  
Shepard R. Hurwitz ◽  
Walter D. Pilkey
Keyword(s):  

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