Jared T. Bruton
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Jared T. Bruton has a total of 5 co-authors. Here are the top co-authors by number of shared publications:
Janette D. Fernelius
Department of Mechanical Engineering , Brigham Young University , Provo, UT 84602, USA
1 shared publication- Larry L. Howell
Department of Mechanical Engineering, Brigham Young University, Provo, UT 84602, USA
1 shared publication Spencer P. Magleby
Department of Mechanical Engineering , Brigham Young University , Provo, UT 84602, USA
1 shared publication- Todd G. Nelson
Brigham Young University, Provo, UT
1 shared publication Trent K. Zimmerman
Department of Mechanical Engineering , Brigham Young University , Provo, UT 84602, USA
1 shared publication
Latest Publications
- Open Access
- 1 September 2016
- Published by The Royal Society in Royal Society Open Science
- Vol. 3 (9) , 160429
Packing and deploying Soft Origami to and from cylindrical volumes with application to automotive airbags
Packing soft-sheet materials of approximately zero bending stiffness using Soft Origami (origami patterns applied to soft-sheet materials) into cylindrical volumes and their deployment via mechanisms or internal pressure (inflation) is of interest in fields including automobile airbags, deployable heart stents, inflatable space habitats, and dirigible and parachute packing. This paper explores twofold patterns, the ‘flasher’ and the ‘inverted-cone fold’, for packing soft-sheet materials into cylindrical volumes. Two initial packing methods and mechanisms are examined for each of the flasher and inverted-cone fold patterns. An application to driver’s side automobile airbags is performed, and deployment tests are completed to compare the influence of packing method and origami pattern on deployment performance. Following deployment tests, two additional packing methods for the inverted-cone fold pattern are explored and applied to automobile airbags. It is shown that modifying the packing method (using different methods to impose the same base pattern on the soft-sheet material) can lead to different deployment performance. In total, two origami patterns and six packing methods are examined, and the benefits of using Soft Origami patterns and packing methods are discussed. Soft Origami is presented as a viable method for efficiently packing soft-sheet materials into cylindrical volumes.
- 1 September 2016
- Published by The Royal Society in Royal Society Open Science
- Vol. 3 (9) , 160429
Open AccessPacking and deploying Soft Origami to and from cylindrical volumes with application to automotive airbags
Packing soft-sheet materials of approximately zero bending stiffness using Soft Origami (origami patterns applied to soft-sheet materials) into cylindrical volumes and their deployment via mechanisms or internal pressure (inflation) is of interest in fields including automobile airbags, deployable heart stents, inflatable space habitats, and dirigible and parachute packing. This paper explores twofold patterns, the ‘flasher’ and the ‘inverted-cone fold’, for packing soft-sheet materials into cylindrical volumes. Two initial packing methods and mechanisms are examined for each of the flasher and inverted-cone fold patterns. An application to driver’s side automobile airbags is performed, and deployment tests are completed to compare the influence of packing method and origami pattern on deployment performance. Following deployment tests, two additional packing methods for the inverted-cone fold pattern are explored and applied to automobile airbags. It is shown that modifying the packing method (using different methods to impose the same base pattern on the soft-sheet material) can lead to different deployment performance. In total, two origami patterns and six packing methods are examined, and the benefits of using Soft Origami patterns and packing methods are discussed. Soft Origami is presented as a viable method for efficiently packing soft-sheet materials into cylindrical volumes.