Interactive educational software of textile design

Hernández-Abad, Francisco; Rojas‐Sola, José Ignacio; Hernández-Abad, Vicente Jesús; Ochoa-Vives, Manuel; Font-Andreu, Jordi; Hernández-Díaz, David; Villar-Ribera, Ricardo

doi:10.1002/cae.20428

Cited by 4 publications

(5 citation statements)

References 14 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…The proposed tool was developed with the aid of the software Authorware v. 7.0.2 from Adobe (San José, CA, USA), which uses instructions similar to those of in C++ programming language. This software was previously used by the authors to develop various interactive tools [31,32]. Figure 13 depicts a simplified flowchart for the process.…”

Section: Implementation Of the Software Toolmentioning

confidence: 99%

Computer-Aided Design: Development of a Software Tool for Solving Loci Problems

Hernández-Díaz

Hernández-Abad

et al. 2022

Symmetry

Self Cite

View full text Add to dashboard Cite

In this work, we developed a software tool for the simplified, automated definition and viewing of loci in the plane, an essential task in the design, engineering and architectural fields. The process was started by identifying the most salient geometric loci in the engineering domain (i.e., tangents). A geometric approach was followed to deal with curves from the relative positions of two circles or a circle and a point. The algorithms used can be easily implemented in commercially available CAD software, which testifies to the usefulness and timeliness of the proposed tool. The tool successfully solved all target cases and was implemented as a function with the commercial software Adobe Authorware v.7.0.2.

show abstract

Section: Implementation Of the Software Toolmentioning

confidence: 99%

Computer-Aided Design: Development of a Software Tool for Solving Loci Problems

Hernández-Díaz

Hernández-Abad

et al. 2022

Symmetry

Self Cite

View full text Add to dashboard Cite

show abstract

“…The study of textile patterns or structures involves the use of mathematical models to replicate the behavior of textile structures (yarns, textiles, and knitting). [33][34][35] A scale-free value known as desirability is produced from an estimated response using the desirability function technique. The response's target value can be attained, minimized, or maximized using optimization's goals.…”

Section: Introductionmentioning

confidence: 99%

“…The duration of the textile process and the complexity of its technological processes allow for the presence of several sub‐sectors in terms of business structure and integration. The study of textile patterns or structures involves the use of mathematical models to replicate the behavior of textile structures (yarns, textiles, and knitting) 33–35 …”

Section: Introductionmentioning

confidence: 99%

Optimizing yarn properties through response surface methodology: Finding the ideal flax and cotton fiber proportion in blended yarns by using design‐expert software

Islam,

‐Karim,

Uddin

2024

SPE Polymers

View full text Add to dashboard Cite

The textile industries are looking forward to sustainable textile products. The bio‐based products are very important for protecting the environment, reducing carbon emissions, eliminating chemical pollution, and preserving the resources. These products provide economic advantages and strengthen communities with customer expectations for environmentally friendly items. In addition, sustainable practices encourage innovation and contribute to a healthier and adaptable environment, making them an essential textile product. Here the natural flax fiber plays a vital role due to its eco‐friendly behavior. Cotton‐flax blended yarns are manufacturing for perfect use of natural fibers and getting the better quality yarn than single product yarn. Here in this work it was trying to find out the perfect blending ratio by using Design‐Expert software. Because different blended ratio contain different characteristics. So it was trying to find out a perfect blending solution from the thirteen different ratios by using Design‐Expert software. This software analyses the blended ratios through statistical analysis. This study focuses on the unevenness (U%), imperfection index (IPI), hairiness (H%), tenacity (cN/tex) and elongation at break of the blended yarn. During the analysis the actual and predicted values were checked and it shows good significance, the correlation and regression analysis highlight the results of the samples summary. The findings of the study have great impact on the quality of cotton‐flax blended yarn, which impact on the quality of textile products. This work not only helps to understand cotton‐flax blending using Design‐Expert software, but it also highlights the possibility of using the perfect blended ratio by giving a solution.Highlights To identify the perfect blended ratio of flax and cotton fiber for producing blended yarn. Design‐Expert software has been used to find out the perfect response through yarn properties surface methodology. Thirteen experimental runs were trailed to find the perfect result.

show abstract

“…A common consensus regarding the definition of a geometric place or locus describes it as a set of points that satisfies one or more of these properties [35]: distance, angle, or some other parametric feature. A practical locus problem is found in Aristotle's Meteorology [36].…”

Section: Introductionmentioning

confidence: 99%

Computer-Aided Sketching: Incorporating the Locus to Improve the Three-Dimensional Geometric Design

et al. 2020

Self Cite

View full text Add to dashboard Cite

This article presents evidence of the convenience of implementing the geometric places of the plane into commercial computer-aided design (CAD) software as auxiliary tools in the computer-aided sketching process. Additionally, the research considers the possibility of adding several intuitive spatial geometric places to improve the efficiency of the three-dimensional geometric design. For demonstrative purposes, four examples are presented. A two-dimensional figure positioned on the flat face of an object shows the significant improvement over tools currently available in commercial CAD software, both vector and parametric: it is more intuitive and does not require the designer to execute as many operations. Two more complex three-dimensional examples are presented to show how the use of spatial geometric places, implemented as CAD software functions, would be an effective and highly intuitive tool. Using these functions produces auxiliary curved surfaces with points whose notable features are a significant innovation. A final example provided solves a geometric place problem using own software designed for this purpose. The proposal to incorporate geometric places into CAD software would lead to a significant improvement in the field of computational geometry. Consequently, the incorporation of geometric places into CAD software could increase technical-design productivity by eliminating some intermediate operations, such as symmetry, among others, and improving the geometry training of less skilled users.

show abstract

Interactive educational software of textile design

Abstract: This paper presents a novel educational software package which develops an Interactive Didactic

Cited by 4 publications

References 14 publications

Computer-Aided Design: Development of a Software Tool for Solving Loci Problems

Computer-Aided Design: Development of a Software Tool for Solving Loci Problems

Optimizing yarn properties through response surface methodology: Finding the ideal flax and cotton fiber proportion in blended yarns by using design‐expert software

Computer-Aided Sketching: Incorporating the Locus to Improve the Three-Dimensional Geometric Design

Contact Info

Product

Resources

About