Exploitation of shape memory materials in sun adaptive user-controllable building façades. Boldini, A., Colangelo, M, Pilla, A, Tavanti, M, & Mariani, S TU Delft, 2017. abstract bibtex Smart morphing materials are increasingly studied and are also expected to soon become economically available for architects and engineers, being potentially suitable for a great number of applications. In particular, shape memory materials possess the unique feature of memorizing shapes that can be continuously recovered through the application of external stimuli. This research proves the potentialities of an adaptive shading module actuated by smart materials, which enable the facade shape to change in response to the incoming solar radiation. The final goal is to design a building skin that is attuned to climatic changes and which creates occupants' awareness of environmental variation. In particular, the exploitation of the physical properties of shape memory materials would guarantee the internal daylight comfort with (almost) zero-energy actuation and reduced system complexity; this would be in contrast with kinetic envelopes which, in order to preserve interior conditions in response to external variations, rely on sensors, motors, and computational feedback loops. Inspired by nature and mimicking petals' movement dynamics, the proposed facade module has been designed starting from a geometrical schematization of flower's shape: four triangular petals on a square basis dynamically adapt their degree of openness based on the incoming solar radiation. The petal-like wings, actuated by strips of a two-way shape memory polymer, allow a completely autonomous passive control of building interiors' conditions and zero-energy actuation. The actuator is located on each petal side directly exposed to solar irradiation, triggering the …
@ARTICLE{Boldini2017-pz,
title = "{Exploitation of shape memory materials in sun adaptive
user-controllable building fa\c{c}ades}",
author = "Boldini, Alain and Colangelo, M and Pilla, A and Tavanti, M and
Mariani, S",
publisher = "TU Delft",
pages = "72--73",
abstract = "Smart morphing materials are increasingly studied and are also
expected to soon become economically available for architects and
engineers, being potentially suitable for a great number of
applications. In particular, shape memory materials possess the
unique feature of memorizing shapes that can be continuously
recovered through the application of external stimuli. This
research proves the potentialities of an adaptive shading module
actuated by smart materials, which enable the facade shape to
change in response to the incoming solar radiation. The final
goal is to design a building skin that is attuned to climatic
changes and which creates occupants' awareness of environmental
variation. In particular, the exploitation of the physical
properties of shape memory materials would guarantee the internal
daylight comfort with (almost) zero-energy actuation and reduced
system complexity; this would be in contrast with kinetic
envelopes which, in order to preserve interior conditions in
response to external variations, rely on sensors, motors, and
computational feedback loops. Inspired by nature and mimicking
petals' movement dynamics, the proposed facade module has been
designed starting from a geometrical schematization of flower's
shape: four triangular petals on a square basis dynamically adapt
their degree of openness based on the incoming solar radiation.
The petal-like wings, actuated by strips of a two-way shape
memory polymer, allow a completely autonomous passive control of
building interiors' conditions and zero-energy actuation. The
actuator is located on each petal side directly exposed to solar
irradiation, triggering the \ldots{}",
year = 2017,
keywords = "GoogleScholar"
}
Downloads: 0
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