The Impact of Climate Change on Historic Interiors
type: CreativeWork
description: It is widely understood that the environment is critical for the preservation of historic collections and interiors, if the environment is unsuitable it can create an increased risk of damage. In historic houses collections are usually on open display, and the room environment often has little control thus it is vulnerable to changes in the outdoor environment. The future outdoor environment is projected to change so the aim of this work has been to develop a widely applicable model to investigate the potential impact of climate change on historic interiors. A simple transfer function has been used to predict indoor temperature and relative humidity. The method is widely applicable and easily transferable between unheated buildings. It has been shown that it is important to assess each location and room on an individual basis. The method has been coupled with future climate output, from both the UKCP09 weather generator and the Hadley model, where data has been downscaled. The high resolution climate output allows for projections of future indoor environment. Future temperature is projected to increase in unheated historic houses around the UK and across Europe, although less than outdoors. Annual average relative humidity is largely unchanged in the future. Damage functions are used to determine the impact of the future indoor environment on materials. Typically temperature driven damage such as chemical degradation of paper and silk and insect pest activity increase in the future, whereas damage driven by relative humidity, such as salt transitions, depends upon the location assessed. In general risk of mould growth increases, and dimensional changes to wood decrease. The significance of future changes is an important consideration, requiring some further work. Annual averages are shown to hide seasonal changes, thus it is important to assess these, which can impact upon management strategies. At Knole it is projected that the summer humidity will decrease and the…
abstract: It is widely understood that the environment is critical for the preservation of historic collections and interiors, if the environment is unsuitable it can create an increased risk of damage. In historic houses collections are usually on open display, and the room environment often has little control thus it is vulnerable to changes in the outdoor environment. The future outdoor environment is projected to change so the aim of this work has been to develop a widely applicable model to investigate the potential impact of climate change on historic interiors. A simple transfer function has been used to predict indoor temperature and relative humidity. The method is widely applicable and easily transferable between unheated buildings. It has been shown that it is important to assess each location and room on an individual basis. The method has been coupled with future climate output, from both the UKCP09 weather generator and the Hadley model, where data has been downscaled. The high resolution climate output allows for projections of future indoor environment. Future temperature is projected to increase in unheated historic houses around the UK and across Europe, although less than outdoors. Annual average relative humidity is largely unchanged in the future. Damage functions are used to determine the impact of the future indoor environment on materials. Typically temperature driven damage such as chemical degradation of paper and silk and insect pest activity increase in the future, whereas damage driven by relative humidity, such as salt transitions, depends upon the location assessed. In general risk of mould growth increases, and dimensional changes to wood decrease. The significance of future changes is an important consideration, requiring some further work. Annual averages are shown to hide seasonal changes, thus it is important to assess these, which can impact upon management strategies. At Knole it is projected that the summer humidity will decrease and the…
author: Lankester, Paul
language: en
date published: 2013-01
date modified: 2026-07-24T02:11:51Z
provider: University of East Anglia
publisher: Networked Digital Library of Theses and Dissertations
type: WebPage
source organization: University of East Anglia