Models for the electrical and thermal behaviour of the module are developed and validated experimentally.
To obtain a clearer picture of the behaviour of the module, we created a phase plot of the concentration of the response at adjacent spatial locations.
With regard to kinetic parameters we make a representative choice of kinetic parameters in such a way that these kinetic parameters represent the typical behaviour of the module.
Instead the bistability is reflected in the fact that (depending on signal ranges) it is possible to have multiple stable spatially graded responses, which may be seen as spatial analogues of the temporal behaviour of the module.
As we will see, and this is our main concern, the behaviour of the modules present in C [ → Y 〉 1 may be quite different. where the modules present in C [ → Y 〉 1 are all isomorphic. As we have seen in Sect.
The work presented here focussed on the behaviour of the modules which have a natural input and output.
The behaviour of each module is strictly local since it has visibility only on its controlled modules, but not on the module which controls it.
The PCED can be transformed into a formal model in which the behaviour of each module is described in terms of logical expressions for the modules' input, state and output variables.
In biological design, many of the environmental properties that determine the behaviour of a module have not been identified, or have been identified but not modelled owing to their complexity.
In particular this study presents a detailed analysis of airflow and the thermal behaviour of a photovoltaic module (PV), a solar thermal collector (ST) as well as a transparent single layer glass panel used as impact pane (TR) all integrated into the façade construction.
