Titlebook: Active Origami; Modeling, Design, an Edwin A. Peraza Hernandez,Darren J. Hartl,Dimitris Book 2019 Springer International Publishing AG, par

EXERT

書目名稱Active Origami影響因子(影響力)




書目名稱Active Origami影響因子(影響力)學科排名




書目名稱Active Origami網(wǎng)絡公開度




書目名稱Active Origami網(wǎng)絡公開度學科排名




書目名稱Active Origami被引頻次




書目名稱Active Origami被引頻次學科排名




書目名稱Active Origami年度引用




書目名稱Active Origami年度引用學科排名




書目名稱Active Origami讀者反饋




書目名稱Active Origami讀者反饋學科排名

Tracheotomy

978-3-030-06315-3Springer International Publishing AG, part of Springer Nature 2019

Cervical-Spine

大氣層

GEM

Pruritus

Anne Olivia Boyer,Robert S. Boyerethod applicable to a much wider spectrum of three-dimensional goal shapes. This chapter presents the . to solve the following origami design problem: given a goal shape represented as a polygonal mesh (termed as the goal mesh), find the shape and fold pattern of a planar sheet that can be folded to

endocardium

Hans J. Bremermann,Russell W. Andersonases. However, such previous models are not intended for origami structures having non-negligible fold thickness or maximum fold curvature constraints based on material or structural limitations. In this chapter, we develop a model that captures the kinematic response of sheets having realistic fold

PALL

falsehood

Hot-Flash

Formalizing the Face Lattice of Polyhedrae kinematics model for origami with smooth folds developed in Chap. . and existing plate theories to obtain a structural representation for folds of non-zero thickness. The implementation of the model in a computational environment is also addressed. We provide examples including origami structures