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Sawako Kaijima

Researcher at Singapore University of Technology and Design

Publications -  12
Citations -  205

Sawako Kaijima is an academic researcher from Singapore University of Technology and Design. The author has contributed to research in topics: Parametric statistics & Finite element method. The author has an hindex of 6, co-authored 12 publications receiving 140 citations. Previous affiliations of Sawako Kaijima include Harvard University.

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Digital design and nonlinear simulation for additive manufacturing of soft lattice structures

TL;DR: In this paper, the authors present a digital design and nonlinear simulation approach for additive manufacturing of soft lattices structures subject to large deformations and instabilities, for which applications in soft robotics, healthcare, personal protection, energy absorption, fashion and design are rapidly emerging.
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Prediction of mechanical properties of knitted fabrics under tensile and shear loading: Mesoscale analysis using representative unit cells and its validation

TL;DR: In this article, a numerical framework was proposed to predict the mechanical behavior of knitted fabrics from their discrete structure at the fabric yarn level, utilizing the hierarchical multiscale method.
Journal ArticleDOI

Simultaneous Digital Design and Additive Manufacture of Structures and Materials

TL;DR: The digital design and manufacturing workflow is validated by designing, fabricating, and testing a series of structures that illustrate capabilities, show how it empowers the exploitation of new design freedom, and even challenges traditional design principles relating form, structure, and function.
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Nonlinear Multi-Scale Modelling, Simulation and Validation of 3D Knitted Textiles

TL;DR: In this article, a multi-scale modeling and simulation framework for the prediction of the nonlinear orthotropic mechanical behavior of single jersey knitted textiles and its experimental validation is presented, where yarns are modeled as nonlinear 3D beam elements and numerically discretized using an isogeometric collocation method, where a frictional contact formulation is used to model inter-yarn interactions.
Proceedings ArticleDOI

A multi-touch interface for fast architectural sketching and massing

TL;DR: A novel multi-touch interface for fast architectural sketching and massing of tall buildings that incorporates a family of multi- touch gestures, enabling one to quickly sketch the 2D contour of a base floor plan and extrude it to model a building with multi-floor structures.