Thanonchai Watlom’s scientific contributions

What is this page?


This page lists works of an author who doesn't have a ResearchGate profile or hasn't added the works to their profile yet. It is automatically generated from public (personal) data to further our legitimate goal of comprehensive and accurate scientific recordkeeping. If you are this author and want this page removed, please let us know.

Publications (2)


Figure 3 Pinecone natural structure and mechanism
Figure 5 The ANO (Alex-Nonn) origami folding pattern development
Figure 7 ANO pattern parametric generation and evaluation
Figure 8 Data analysis of the ANO pattern's parametric generation system
Figure 9 The chosen ANO pattern's detailed parameters and behaviour.

+3

Prototyping Adaptive Architecture: Balancing Flexibility of Folding Patterns and Adaptability of Micro-Kinetic Movements
  • Conference Paper
  • Full-text available

September 2018

·

1,914 Reads

·

3 Citations

·

Thanonchai Watlom

·

·

The design process of dynamic architecture has been an emerging topic in recent studies, in which researchers try to find an effective method of generating and controlling adaptive components. In this paper, we present a digital-physical modelling process that seeks to explore tectonic fusion of origami folding patterns and micro-kinetic movements. A flexible modular prototype system is developed and evaluated through combining origami-based fabrication simulation and mathematical characterisation mimicking the pinecone's nastic movements. The modular design system is then applied to an urban site as a test case study. The results show how the pinecone-like nastic movements may be translated into design and fabrication of an adaptive architecture. We discuss the lessons learned from the digital-physical prototyping process finding the balance between geometric flexibility and micro-kinetic adaptability.

Download

Figure 1. Overview of the design process-flexibility and adaptability.
Table 1 . Site analysis and design inputs.
Figure 2. The mathematical formula calculating the position of the control point P given constraints from the movement angle α and other structural variables (m, n, x) and different variations of the component generated by the parametric model
Parameterising Pinecone Nastic Movement for Adaptable Architecture Design

This study investigates a digital modelling process that aims at achieving architectural flexibility and adaptability. Inspired by the pinecone nastic movement, a flexible modular design is proposed and evaluated through various methods including a mathematical parametric generator and origami-based fabrication simulation. The modular design system was applied to a specific chosen site with its environ- mental and contextual requirements. The results show how the pine- cone-like nastic movement may be translated into design and fabrication of adaptive architecture. We discuss the likely impacts of the kinetic features on architectural sustainability as well as the effective- ness of parametric modelling.