Locking mechanisms in degree-4 vertex origami structures. Fang, H., Li, S., Xu, J., & Wang, K., W. In Proc. SPIE 9799 Active and Passive Smart Structures and Integrated Systems, volume 1, pages 979910, 4, 2016. Paper Website abstract bibtex Origami has emerged as a potential tool for the design of mechanical metamaterials and metastructures whose novel properties originate from their crease patterns. Most of the attention in origami engineering has focused on the well- known Miura-Ori, a folded tessellation that is flat-foldable for folded sheet and stacked blocks. This study advances the state of the art and expands the research field to investigate generic degree-4 vertex (4-vertex) origami, with a focus on facet-binding. In order to understand how facet-binding attributes to the mechanical properties of 4-vertex origami struc- tures, geometries of the 4-vertex origami cells are analyzed and analytically expressed. Through repeating and stacking 4-vertex cells, origami sheets and stacked origami blocks can be constructed. Geometry analyses discover two mecha- nisms that will lead to the self-locking of 4-vertex origami cells, sheets, and stacked blocks: in-cell facet-binding and inter-cell facet-binding. These two mechanisms and the predicted self-locking phenomena are verified through 3D simu- lations and prototype experiments. Finally, this paper briefly introduces the unusual mechanical properties caused by the locking of 4-vertex origami structures. The research reported in this paper could foster a new breed of self-locking struc- tures with various engineering applications.
@inProceedings{
title = {Locking mechanisms in degree-4 vertex origami structures},
type = {inProceedings},
year = {2016},
identifiers = {[object Object]},
pages = {979910},
volume = {1},
issue = {9799},
websites = {http://goo.gl/un8SeO},
month = {4},
day = {15},
city = {Las Vegas, NV USA},
editors = {[object Object]},
id = {a935da15-730e-3e02-ac19-e0a5aa13280a},
created = {2016-04-19T01:35:34.000Z},
file_attached = {true},
profile_id = {b5f8f599-d388-33f5-b35f-d42e32fe63c4},
last_modified = {2019-04-10T19:01:32.500Z},
tags = {@Origami},
read = {true},
starred = {false},
authored = {true},
confirmed = {true},
hidden = {false},
citation_key = {Fang2016a},
private_publication = {false},
abstract = {Origami has emerged as a potential tool for the design of mechanical metamaterials and metastructures whose novel properties originate from their crease patterns. Most of the attention in origami engineering has focused on the well- known Miura-Ori, a folded tessellation that is flat-foldable for folded sheet and stacked blocks. This study advances the state of the art and expands the research field to investigate generic degree-4 vertex (4-vertex) origami, with a focus on facet-binding. In order to understand how facet-binding attributes to the mechanical properties of 4-vertex origami struc- tures, geometries of the 4-vertex origami cells are analyzed and analytically expressed. Through repeating and stacking 4-vertex cells, origami sheets and stacked origami blocks can be constructed. Geometry analyses discover two mecha- nisms that will lead to the self-locking of 4-vertex origami cells, sheets, and stacked blocks: in-cell facet-binding and inter-cell facet-binding. These two mechanisms and the predicted self-locking phenomena are verified through 3D simu- lations and prototype experiments. Finally, this paper briefly introduces the unusual mechanical properties caused by the locking of 4-vertex origami structures. The research reported in this paper could foster a new breed of self-locking struc- tures with various engineering applications.},
bibtype = {inProceedings},
author = {Fang, H and Li, S and Xu, J and Wang, K W},
booktitle = {Proc. SPIE 9799 Active and Passive Smart Structures and Integrated Systems}
}
Downloads: 0
{"_id":"8jb5APghYm2GFi3ou","bibbaseid":"fang-li-xu-wang-lockingmechanismsindegree4vertexorigamistructures-2016","authorIDs":["55ff0fbb201a05dc030001d0"],"author_short":["Fang, H.","Li, S.","Xu, J.","Wang, K., W."],"bibdata":{"title":"Locking mechanisms in degree-4 vertex origami structures","type":"inProceedings","year":"2016","identifiers":"[object Object]","pages":"979910","volume":"1","issue":"9799","websites":"http://goo.gl/un8SeO","month":"4","day":"15","city":"Las Vegas, NV USA","editors":"[object Object]","id":"a935da15-730e-3e02-ac19-e0a5aa13280a","created":"2016-04-19T01:35:34.000Z","file_attached":"true","profile_id":"b5f8f599-d388-33f5-b35f-d42e32fe63c4","last_modified":"2019-04-10T19:01:32.500Z","tags":"@Origami","read":"true","starred":false,"authored":"true","confirmed":"true","hidden":false,"citation_key":"Fang2016a","private_publication":false,"abstract":"Origami has emerged as a potential tool for the design of mechanical metamaterials and metastructures whose novel properties originate from their crease patterns. Most of the attention in origami engineering has focused on the well- known Miura-Ori, a folded tessellation that is flat-foldable for folded sheet and stacked blocks. This study advances the state of the art and expands the research field to investigate generic degree-4 vertex (4-vertex) origami, with a focus on facet-binding. In order to understand how facet-binding attributes to the mechanical properties of 4-vertex origami struc- tures, geometries of the 4-vertex origami cells are analyzed and analytically expressed. Through repeating and stacking 4-vertex cells, origami sheets and stacked origami blocks can be constructed. Geometry analyses discover two mecha- nisms that will lead to the self-locking of 4-vertex origami cells, sheets, and stacked blocks: in-cell facet-binding and inter-cell facet-binding. These two mechanisms and the predicted self-locking phenomena are verified through 3D simu- lations and prototype experiments. Finally, this paper briefly introduces the unusual mechanical properties caused by the locking of 4-vertex origami structures. The research reported in this paper could foster a new breed of self-locking struc- tures with various engineering applications.","bibtype":"inProceedings","author":"Fang, H and Li, S and Xu, J and Wang, K W","booktitle":"Proc. SPIE 9799 Active and Passive Smart Structures and Integrated Systems","bibtex":"@inProceedings{\n title = {Locking mechanisms in degree-4 vertex origami structures},\n type = {inProceedings},\n year = {2016},\n identifiers = {[object Object]},\n pages = {979910},\n volume = {1},\n issue = {9799},\n websites = {http://goo.gl/un8SeO},\n month = {4},\n day = {15},\n city = {Las Vegas, NV USA},\n editors = {[object Object]},\n id = {a935da15-730e-3e02-ac19-e0a5aa13280a},\n created = {2016-04-19T01:35:34.000Z},\n file_attached = {true},\n profile_id = {b5f8f599-d388-33f5-b35f-d42e32fe63c4},\n last_modified = {2019-04-10T19:01:32.500Z},\n tags = {@Origami},\n read = {true},\n starred = {false},\n authored = {true},\n confirmed = {true},\n hidden = {false},\n citation_key = {Fang2016a},\n private_publication = {false},\n abstract = {Origami has emerged as a potential tool for the design of mechanical metamaterials and metastructures whose novel properties originate from their crease patterns. Most of the attention in origami engineering has focused on the well- known Miura-Ori, a folded tessellation that is flat-foldable for folded sheet and stacked blocks. This study advances the state of the art and expands the research field to investigate generic degree-4 vertex (4-vertex) origami, with a focus on facet-binding. In order to understand how facet-binding attributes to the mechanical properties of 4-vertex origami struc- tures, geometries of the 4-vertex origami cells are analyzed and analytically expressed. Through repeating and stacking 4-vertex cells, origami sheets and stacked origami blocks can be constructed. Geometry analyses discover two mecha- nisms that will lead to the self-locking of 4-vertex origami cells, sheets, and stacked blocks: in-cell facet-binding and inter-cell facet-binding. These two mechanisms and the predicted self-locking phenomena are verified through 3D simu- lations and prototype experiments. Finally, this paper briefly introduces the unusual mechanical properties caused by the locking of 4-vertex origami structures. The research reported in this paper could foster a new breed of self-locking struc- tures with various engineering applications.},\n bibtype = {inProceedings},\n author = {Fang, H and Li, S and Xu, J and Wang, K W},\n booktitle = {Proc. SPIE 9799 Active and Passive Smart Structures and Integrated Systems}\n}","author_short":["Fang, H.","Li, S.","Xu, J.","Wang, K., W."],"urls":{"Paper":"https://bibbase.org/service/mendeley/b5f8f599-d388-33f5-b35f-d42e32fe63c4/file/0d5baa4e-af1c-9b2b-034b-c97b187c6729/2016-Locking_mechanisms_in_degree-4_vertex_origami_structures.pdf.pdf","Website":"http://goo.gl/un8SeO"},"bibbaseid":"fang-li-xu-wang-lockingmechanismsindegree4vertexorigamistructures-2016","role":"author","downloads":0},"bibtype":"inProceedings","creationDate":"2019-05-30T19:59:02.218Z","downloads":0,"keywords":[],"search_terms":["locking","mechanisms","degree","vertex","origami","structures","fang","li","xu","wang"],"title":"Locking mechanisms in degree-4 vertex origami structures","year":2016}