Energy
Wood can be considered a traditional material, but its rustic appearance belies intriguing properties. Researchers hypothesise that its use can modulate the conditions of internal spaces, and even our perceptions of them. At Aalto University, a new project seeks to understand and share these energy conserving strategies
Utilising wood to create energy- efficient living spaces
It’s one of our most ancient construction mediums, but, surprisingly, wood may also possess qualities that render it an ideal material for twenty-first century living. A significant
interdisciplinary
study funded by Aalto University is currently examining these features and determining how they could take root in our homes. Under the aegis
institution’s Energy Efficiency Research Programme, the initiative branches across research groups focusing on bioproducts chemistry, wood materials technology, architecture, energy technology and environmental psychology – a diversity indicative of its many potential applications and effects.
homeowners to install it. “In future, I hope that wooden design components will be created that can be serially reused,” says Hughes. “These could potentially be incorporated in several buildings throughout their functional lives. Because wood
stores of the carbon, this concept is
extremely advantageous for the atmosphere and climate.” “Wood is simultaneously a good insulator
and possesses a reasonably high heat capacity,” says Hughes. “These are interesting
thermal past. One of the properties, which
haven’t always been thoroughly exploited in the
areas we’re
examining is thermal relationships within a building, or between rooms and the wooden features inside them.” Wood is often incorrectly referred to as a ‘breathing’ material, although it should
“Wood is simultaneously a good
insulator and possesses a reasonably high heat capacity”
“We want to look at the properties of
wood, and how these can be exploited to make buildings more energy efficient,” explains Mark Hughes, professor of wood technology within the Department of Forest Products Technology. “Wood is aesthetically attractive, due to its natural grain, and is often regarded as a tactile, cosy material which ‘feels’ warm. Our project seeks to explore both the physical aspects of the material and the ways in which people interact with it.” Spatial design and usage of wood within
interior settings will be explored, alongside a consideration of its visual appeal, and the factors that could incentivise
72 Insight Publishers | Projects Test house at Aalto
properly be designated as hygroscopic. “This means that it absorbs water from its surrounding environment, particularly if untreated and exposed. If humidity drops, that moisture is released back into the atmosphere. This dynamic behaviour could prove very useful in locations where there are large peaks or troughs in internal humidity. Wood, properly deployed, could contribute towards moderating these conditions.” Because of this property, wood may actually reduce the amount of energy necessary to heat a building. A fundamental objective of the research is
to consider how the functionality or usability of wood can be enhanced, without inhibiting some of its helpful attributes. Heat capacity is one of these desirable properties, which
the researchers will attempt to moderate by compressing wood
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