The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review

Research output: Contribution to journalJournal articleResearchpeer-review

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The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review. / Smedemark, Signe Hjerrild.

In: ePreservationScience, 27.11.2018.

Research output: Contribution to journalJournal articleResearchpeer-review

Harvard

Smedemark, SH 2018, 'The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review', ePreservationScience.

APA

Smedemark, S. H. (2018). The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review. ePreservationScience.

Vancouver

Smedemark SH. The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review. ePreservationScience. 2018 Nov 27.

Author

Smedemark, Signe Hjerrild. / The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review. In: ePreservationScience. 2018.

Bibtex

@article{bf14b1dd262e45218412f8eed5c2d31a,
title = "The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review",
abstract = "Airflow distributes contaminants inside buildings. Infiltration through unintentional openings in the building envelope controls the airflow in unoccupied repositories without heating, ventilation and air-conditioning (HVAC) systems. A restricted airflow may lead to the development of thermal stratification and “dead-spaces” where air pollutants emitted from construction materials or the heritage collection accumulates. Heritage collections can act as both an emission source and a sink for carboxylic acids. Carboxylic acids can cause irreversible heterogeneous reactions with the surface of materials, e.g. tarnishing metals. It is therefore crucial to establish the dynamics of carboxylic acids inside repositories without HVAC systems, in order to determine and control its impact on the longterm preservation of heritage collections.This paper presents a literature review on air dynamics and control of carboxylic acids inside unoccupied repositories without HVAC systems. It furthermore reviews reported levels of carboxylic acids found inside heritage institutions and sorbents used to remove them. Further research on air dynamics and whether carboxylic acids is removed primarily by deposition onto collections, or by filtration in HVAC systems inside heritage institutions is, however, necessary in order to establish the benefits of air filtration.",
author = "Smedemark, {Signe Hjerrild}",
year = "2018",
month = nov,
day = "27",
language = "English",
journal = "ePreservationScience",

}

RIS

TY - JOUR

T1 - The Dynamics and Control of Indoor Air Pollution in Repositories Without Mechanical Ventilation for Cultural Heritage Collections. A Literature Review

AU - Smedemark, Signe Hjerrild

PY - 2018/11/27

Y1 - 2018/11/27

N2 - Airflow distributes contaminants inside buildings. Infiltration through unintentional openings in the building envelope controls the airflow in unoccupied repositories without heating, ventilation and air-conditioning (HVAC) systems. A restricted airflow may lead to the development of thermal stratification and “dead-spaces” where air pollutants emitted from construction materials or the heritage collection accumulates. Heritage collections can act as both an emission source and a sink for carboxylic acids. Carboxylic acids can cause irreversible heterogeneous reactions with the surface of materials, e.g. tarnishing metals. It is therefore crucial to establish the dynamics of carboxylic acids inside repositories without HVAC systems, in order to determine and control its impact on the longterm preservation of heritage collections.This paper presents a literature review on air dynamics and control of carboxylic acids inside unoccupied repositories without HVAC systems. It furthermore reviews reported levels of carboxylic acids found inside heritage institutions and sorbents used to remove them. Further research on air dynamics and whether carboxylic acids is removed primarily by deposition onto collections, or by filtration in HVAC systems inside heritage institutions is, however, necessary in order to establish the benefits of air filtration.

AB - Airflow distributes contaminants inside buildings. Infiltration through unintentional openings in the building envelope controls the airflow in unoccupied repositories without heating, ventilation and air-conditioning (HVAC) systems. A restricted airflow may lead to the development of thermal stratification and “dead-spaces” where air pollutants emitted from construction materials or the heritage collection accumulates. Heritage collections can act as both an emission source and a sink for carboxylic acids. Carboxylic acids can cause irreversible heterogeneous reactions with the surface of materials, e.g. tarnishing metals. It is therefore crucial to establish the dynamics of carboxylic acids inside repositories without HVAC systems, in order to determine and control its impact on the longterm preservation of heritage collections.This paper presents a literature review on air dynamics and control of carboxylic acids inside unoccupied repositories without HVAC systems. It furthermore reviews reported levels of carboxylic acids found inside heritage institutions and sorbents used to remove them. Further research on air dynamics and whether carboxylic acids is removed primarily by deposition onto collections, or by filtration in HVAC systems inside heritage institutions is, however, necessary in order to establish the benefits of air filtration.

UR - https://vbn.aau.dk/en/publications/d753ee7e-b8e0-407a-a359-27d7622adf6c

M3 - Journal article

JO - ePreservationScience

JF - ePreservationScience

ER -

ID: 334853793