台灣位屬亞熱帶氣候區，因受季風與中央山脈影響整年多雨且潮濕，台灣大多的建築物室內環境較為悶熱且潮濕。因此常造成生物性汙染物的孳生，當長期處於通風不良且室內環境品質不佳的狀況，不僅影響健康更可能產生病態建築症候群。

在台灣進行室內裝修時，經常受到氣候潮濕影響，因潮濕使得建材膨脹變形、發霉腐敗進而孳生蟲害或是造成塗裝施工品質不良等，使裝修工程與日後維護上增加困難。為了修復受到水損的室內裝修，往往付出不少的時間與金錢，也可能施工後達不到預期的效果。
木質類建材廣泛運用於室內裝修中，因此如果能使木質建材扮演調節濕氣的角色，可使消費者在調濕建材的運用有更多的選擇。國內外雖有許多針對調濕建材的研究，但在台灣，木質建材缺乏足夠數據資料讓設計者或消費者參考來進行設計或選購。

本研究藉由ISO24353(2008)4循環調濕性能試驗所建立的木質複合板數據，與1循環調濕性能的實驗數據(曾偉菱，2016)進行調濕性能測試法的比較，藉此分析兩種實驗法使用時機及分析建立調濕性能數據、探討木質建材塗裝過後的調濕效果並建立木質複合材料調濕性能資料。

研究結果顯示，吸放濕比率低的試材如需使用日本建材中心吸放濕量進行評估時，建議可使用多循環試驗進行調濕性能測試。從分析中可得知木質複合板透過多循環試驗法，吸放濕比率皆能達到評估等級的要求。研究顯示材料塗裝後的調濕性能較差，所有試材經塗裝後吸濕量與放濕量塗皆下降超過30%。研究參考Nordtest MBV及日本建材試驗中心的吸放濕量評估基準，在日本建材試驗中心的吸放濕量評估基準發現未塗裝試材在3小時、6小時雪花栓木之等級都最佳，在12小時則為橡木複合板最佳，塗裝過後所有試材皆未達評估標準。

Taiwan, located in the subtropics, is rainy and humid during the year owing to the monsoon and the Central Mountain Range. The indoor environment of buildings in Taiwan is so humid and muggy that causes the breeding of indoor biological pollutants. Poor ventilation and bad indoor environmental quality not only affect human health, but also result in Sick Building Syndrome.Heavy humidity causes building materials to deform, decay and even breed pests or resulting in poor coating quality. It makes renovation and future maintenance much harder. People always spend much time and money repairing water-damaged indoor decoration; nonetherless the results are not as they expected.

Moisture buffering materials have been considered as a passive control method in managing the indoor relative humidity. It can not only improve the indoor environment quality but also enhance the comfort and health of the inhabitants. The domestic researches have suggested that the use of moisture buffering materials effectively reduce high relative humidity (RH) peaks.

Wooden building materials, broadly applied in interior decoration, play an important role in moisture buffering. Consumers will enjoy a wide range of options for moisture buffering materials if we can enable wooden materials to serve moisture buffering purpose. Although there exists abundant researches in moisture buffering materials both domestically and abroad, in Taiwan, only limited data and information could be referred to.

Following the ISO 24353(2008) standard, this study tests the Moisture Buffering Value (MBV) of wood composite boards in response to humidity variation with four cycles (12-hour adsorption, 12-hour desorption loops four times) and compares the results with the MBV under single cycle, which was experimented by Tseng (2016). The study then analyzes the moisture buffering performance data of the two experimental methods, further discusses moisture buffering efficiency of wood based materials, as well as establishes a moisture buffering database.

1. 中央氣象局(2010)，中央氣象局1981-2010氣象統計資料，取自www.cwb.gov.tw。
2. 社團法人臺灣室內環境品質學會-室內空氣品質全球資料
3. 內政部營建署(2013)，建築工程施工規範第09910章-油漆
4. 林坤輝(2005)，極低濕度環境對作業者健康影響研究，國立高雄第一科技大學環境與安全衛生工程所碩士論文。
5. 黃巧婷(2015)，木質建材塗裝對調濕性能之影響，國立成功大學建築研究所碩士論文。
6. 曾偉菱(2016)，木質複合板之調濕性能測試與評估，國立成功大學建築研究所碩士論文。
7. 紀碧芳(2003)，受黴菌汙染建材上之黴菌種類研究，國立成功大學環境醫學研究所碩士論文。
8. .蔣正武(2006)，调湿材料的研究进展,材料導報P8 – 11。
9. 葉育君、蔡耀賢(2014)，以黴菌發芽預測模型評估住宅調濕建材之設計策略，建築學報,，No.89, pp.57-74。
10. 葉育君(2015)，調濕建材應用於住宅室內空間之性能預測與評估，國立成功大學建築研究所博士論文。
11. 歐陽順(2008)，多孔性廢棄物燒製調濕建材之研究，國立中央大學環境工程研究所碩士論文。
12. 蔡耀賢、江哲銘(2009)，台灣氣候下室內調濕建材之適用性探討，建築學報，第69 期， 35~50。
13. 蔡耀賢，江哲銘，鍾松晉(2010)，各種調濕建材之性能測試與評估，建築學報，第74期增刊，1~14.。
14. 周伯丞、江哲銘、張桂鳳、郭怡君(2009)台灣地區室內溫熱環境改變對於課業學習及工作效率心理滿意度影響之探討，中華民國建築學會「建築學報」第67 期，pp.25-40 。
15. 喻新(2005)濕熱氣候自然通風建築室內霉菌生長之研究(I)
16. 江文魁(2000)建物壁癌防治知識系統初探。
17. 羅建明、陳桂清、柯正龍(2012)大氣腐蝕因子調查及腐蝕環境分類之研究。
18. 張筱玲等人(2012）The Association between Enterovirus 71 Infections and Meteorological Parameters in Taiwan。
19. 蔡馨億(2013)，熱濕氣候下室內常用建材調濕能力與黴菌生長之研究，國立宜蘭大學土木工程學系。
20. 羅友伶(2012)，室內建材調濕設計簡易計算手法之初探，國立雲林科技大學創意生活設計系碩士班碩士論文。
21. 大畑敬，河村敬(2012)，各種建築材料の基本的吸放湿性能の評価，島根県産業技術センター研究報告，第48号。
22. 池田耕一等人(2005) ，シックハウスに関する海外の法規制など，シックハウスを防ぐ最新知識，42-51，丸善株式会社，東京。
23. 塩津弥佳，吉澤晋，池田耕一， 野暗淳夫(1998)，生活時間調査による屋内滞在時間量と活動量
24. JTCCM(2006)建築材料、調湿建材の吸放湿性。http://www.jtccm.or.jp/
25. ASTM(2002) Outdoor atmospheric corrosion
26. Andersen, B., et al., Associations between fungal species and water-damaged building materials. Appl Environ Microbiol, 2011. 77(12)
27. Bornehag, C.G., Sundell, J., Bonini, S., Custovic, A., Malmberg, P., Skerfving, S., Sigsgaard, T., and Verhoeff, A. (2004). Dampness in buildings as a risk factor for health effects, EUROEXPO: a multidisciplinary review of the literature (1998–2000）on dampness and mite exposure in buildings and health effects. Indoor Air, 14, 243–257.
28. Callum A. S. Hill, Andrew Norton, Gary Newman The Water Vapor Sorption Behavior of Natural Fibers(2009)
29. Dinwoodie (1981)Creep in Chipboard Part 3: Initial Assessment of the Influence of Moisture Content and Level of Stressingon Rate of Creep and Time to Failure
30. Jinghong Gao , Yunzong Su, Yaogui Lu , Liping Li ,(2014)Impact of Ambient Humidity on Child
31. Hameury, S. (2005). Moisture buffering capacity of heavy timber structures directly exposed to an indoor climate: a numerical study. Building and environment, 40(10), pp. 1400-1412.
32. Nordtest method .http://www.nordtest.info/
33. ISO 24353(2006). Hygrothermal performance of building materials and products determination of moisture adsorption/desorption properties in response to humidity variation. Geneva, Switzerland: International Organization for Standardization; 2006.
34. ISO 24353(2008). Hygrothermal performance of building materials and products determination of moisture adsorption/desorption properties in response to humidity variation. Geneva, Switzerland: International Organization for Standardization; 2008.
35. JIS A 1470-1(2002). Test method of adsorption/desorption efficiency for building materials to regulate an indoor humidity-part 1: response method of humidity. Tokyo, Japan: Japanese Industrial Standards Committee.
36. JIS A 1470-1(2008). Test method of adsorption/desorption efficiency for building materials to regulate an indoor humidity-part 1: response method of humidity. Tokyo, Japan: Japanese Industrial Standards Committee.
37. JIS A 1470-1(2014). Test method of adsorption/desorption efficiency for building materials to regulate an indoor humidity-part 1: response method of humidity. Tokyo, Japan: Japanese Industrial Standards Committee.
38. Leech, J.A., Nelson, W.C., Burnett, R.T., Aaron, S. and Aizenne, M.E. (2002) It’s about time: a comparison of Canadian and American time-activity patterms. J Expo Annual Eviron Epidemiol, 12, 427-32
39. Lacey , J. (1994). Microorganisms in organic dusts. In:R. Rylander and R.R. Jacobs (eds). Organic dusts. Exposure, effects and prevention. CRC Press., Inc., pp. 17-41.
40. Latif, E., Tucker, S., Ciupala, M. A., Wijeyesekera, D. C. and Newport, D. (2014). Hygric properties of hemp bio-insulations with differing compositions. Construction and Building Materials, 66, pp 702-711.
41. Mayer, B. (1983). Indoor Air Quality, MT, U.S.A.: Addison-Wesley, Reading Mass.
42. Mourad Rahim,Omar Douzane, Anh Dung Tran Le，Geoffrey Promis.(2015). Characterization of flax lime and hemp lime concretes: Hygric properties and moisture buffer capacity.
43. Rode, C., Reuhkuri, R., Time, B., Gustavsan, A., Ojanen, T., Ahonen, J. and Svennberg, K. (2005). Moisture Buffering of Building Materials, Report BYG-DTU R-126. Report of the Nordisk Innovations Center, Department of Civil Engineering, Technical University of Denmark.
44. Spengler, J.D., Sexton, K., 1983, Indoor Air Pollution: A public health perspective. Science,121: 9-17.
45. Svennberg, K., Hedegaard, L. and Rode, C. (2004). Moisture Buffer Performance of a Fully Furnished Room. Proceedings (CD) of the Performance of Exterior Envelopes of Whole Buildings IX International Conference, Clearwater Beach, Florida, 11 pages.
46. Sudha Xirasagar & Herng-Ching Lin & Tsai-Ching Liu (2006) Seasonality in pediatric asthma admissions: the role of climate and environmental factors
47. Viitanen, H., Ritschkoff, A. C., Ojanen, T., Peuhkuri, R., Paajanen, L. and Lähdesmäki, K. (2010). Moisture and Bio-deterioration Risk of Building Materials and Structures. Journal of Building Physics, 33, pp. 201-224.
48. WHO (2009) guidelines for indoor air quality :dampness and mould

49. Zhou，Fushitani，Kamdem (2001)Bending creep behavior of medium density fiberboard and particleboard during cyclic moisture changes