Computing the structural beauty that exists in the underlying living structure of space or big data
Living structure is a physical phenomenon that exists pervasively in our surroundings or in any part of space. Mathematically it is defined as a structure that consists of numerous substructures with an inherent hierarchy. Across different levels of the hierarchy there are far more small substructures than large ones, whereas on each level of the hierarchy substructures are more or less similar. Living structure is to beauty what temperature is to warmth. Through the underlying living structure, the livingness of space (L) or structural beauty can be measured by the number of substructures (S) and their inherent hierarchy (H), that is, L = S * H. This formula implies that the more substructures the more living or more structurally beautiful, and the higher hierarchy of the substructures, the more living or more structurally beautiful.
In this presentation, I will begin with an introduction to the scientific maverick Christopher Alexander (1936–2022), who devoted his entire life to establishing a scientific foundation of architecture on living structure and on the third view of space: space is neither lifeless nor neutral but a living structure capable of being more living or less living. I will defend his argument that the statement of good architecture is true or false rather than only a matter of opinion. I will present the computation of structural beauty of space through paintings, building facades, city plans, nighttime imagery, and ordinary images or big data in general. In the end I will discuss implications of structural beauty in terms of mechanical and organic world views, effect of living structure on human emotional well-being and healing, and even relationship between mind and matter.
Industry 4.0 is having an increasingly positive impact on the value chain by modernizing and optimizing the production and distribution processes. Digital twin (DT) is one of most cutting-edge technologies, providing simulation capabilities to forecast, optimize and estimate states and configurations. These technological capabilities are encouraging industrial stakeholders to invest in the new paradigm. However, an increased focus on the risks involved is really needed before further progressing. The reason is that the deployment of a DT, which is based on a confluence of technologies (IIoT, edge computing, AI, big data, etc.), together with the implicit interaction with the physical counterpart in the real world may generate multiple and unexpected security threats. In this talk, we will analyse that particular DT context and the potential associated threats, and will also present some security recommendations to improve trustworthiness on this new technology.