• 沒有找到結果。

建議轉送本研究成果之產出:「建築玻璃隔熱膜光學性能衰減試驗方法」草 案予經濟部標準檢驗局訂定相關CNS 標準之參考,以推廣綠建築在採用隔熱膜 作為節能改善技術之應用:立即可行建議

主辦機關:內政部建築研究所 協辦機關:經濟部標準檢驗局

本研究透過國內外文獻回顧以及玻璃隔熱膜之加速劣化前測試驗,初步瞭 解隔熱膜在一定加速劣化條件下之光學性能衰減趨勢,藉以研訂了「建築玻璃隔 熱膜光學性能衰減試驗方法」之草案。此標準之內容有助於我國建立建築玻璃隔 熱膜在性能隨時間衰減上量測之標準方法,提供後續作為隔熱膜標稱光學性能衰 減之標示,可確保隔熱膜產品之品質以及有助於建築設計者選用具高品質低衰減 率之隔熱膜產品,有助於綠建築在建築開口部設計對策上之採用,同時確保其應 有之建築節能效益。

附錄一:期初審查意見回覆表

附錄二:期中審查意見回覆表

厚度,包括玻璃帷幕等加列研究範圍。 準(例:JIS A5759:2016)。

18. 建議新增SHGC、Tvis 之定義及計算。

附錄三:期末審查意見回覆表

12. 報告書中,P.23 文字請修正JIS A5759、P..40 圖4-1 請再檢查U 值趨勢資料是否有誤繪。

13. P.51 結論2 請勿說明隔熱膜廠牌,以代碼即 可。

張 委 員 矩 墉

14. 本計畫的隔熱膜,是指單純的膜的部分,但 實際上使用的時機是玻璃+膜,是否會因為 載具的不同而使得膜的性能衰減產生不同 的結論。

15. 是否有依本試驗方法所做出的實例做為訂 定日後實行的參考。

14. 本計畫草擬之試驗規範以 3mm 清玻璃為隔熱膜之 載體,是為了統一各測試 樣本受測時之狀態以求均 一性,未來才得以據此另 定衰減之基準。回顧國際 之相關規範亦皆以此玻璃 規格為受測樣本之載體,

實際應用時當隔熱膜貼附 於不同的玻璃上,將會呈 現不同的衰減情形。

15. 由於本研究目的在於確立 隔熱膜性能衰減之劣化方 式規範,目前尚無實例可 供參考。

附錄四:專家學者諮詢會議記錄 一、 時間:107 年 05 月 28 日(一)下午 2 時 30 分

二、 地點:內政部建築研究所 13 樓會議室一 三、 主席:黃國倉 副教授

四、 出/列席者:陳麒任、黃恩浩、彭宏益、邱皇森、王婉芝、陳海曙、黃國 倉、賴怡廷、陳世禎、王海涯

五、 主席致詞:(略) 六、 計畫簡報:(略) 七、 專家意見:

 邱皇森經理

1. 建議考量增加訂定保固年限與隔熱性能衰退標準。

2. 建議參照現有 ASTM G154 標準

 陳海曙教授

1. 本研究試驗包含「隔熱性能」與「透光性能」建議性能衰減試驗須說 明為「光學性能」衰減試驗,以加強試驗之完整性。

2. 隔熱膜是以應用在外側或外側為設定之對象,須說明選定之理由與條 件。

3. 加速劣化循環標準之選用應考慮材質劣化與光學性能與光學性能之差 異。

 陳麒任副研究員

1. 本研究規劃採用之測試樣本,其挑選是否具相當之代表性?若換為其他 廠牌,是否有很大之差別?另測試樣本之組數是否僅兩組?是否需增加組 數?

2. 採 50 個週期(1200 小時)加速劣化測試驗後,若仍未達劣化現象,是否 有和替代方案或是後續因應方案?

 王婉芝副執行長

1. 針對台灣隔熱膜的施工方法請研究團隊先說明,了解目前施工方式的主 流作為草案架構適用範圍依據。

2. 研究團隊提出劣化程序,有別於國際標準,但針對結露、雨淋排除於暴 露週期因子之原因請說明。

 彭宏益先生

1. 草案架構之第 4 節隔熱膜的定義部分建議移到第 3 節,另第 4 節之內 容建議為品質性能要求為宜。

2. 實驗條件之參數為何選擇 60℃,而非 60℃與 70℃。

參考書目

1. ASTM Standard C732 (2017). Standard Test Method for Aging Effects of Artificial Weathering on Latex Sealants. ASTM International. Philadelphia, USA.

2. ASTM Standard C734 (2015). Standard Test Method for Low-Temperature Flexibility of Latex Sealants After Artificial Weathering. ASTM International.

Philadelphia, USA.

3. ASTM Standard C793 (2017). Standard Test Method for Effects of Laboratory Accelerated Weathering on Elastomeric Joint Sealants. ASTM International.

Philadelphia, USA.

4. ASTM Standard C1257 (2015). Standard Test Method for Accelerated Weathering of Solvent-Release-Type Sealants. ASTM International. Philadelphia, USA.

5. ASTM Standard C1442 (2014). Standard Practice for Conducting Tests on Sealants Using Artificial Weathering Apparatus. ASTM International.

Philadelphia, USA.

6. ASTM Standard C1501 (2014). Standard Test Method for Color Stability of Building Construction Sealants as Determined by Laboratory Accelerated Weathering Procedures. ASTM International. Philadelphia, USA.

7. ASTM Standard C1519 (2010). Standard Test Method for Evaluating Durability of Building Construction Sealants by Laboratory Accelerated Weathering Procedures. ASTM International. Philadelphia, USA.

8. ASTM Standard D750 (2017). Standard Practice for Rubber Deterioration Using Artificial Weathering Apparatus. ASTM International. Philadelphia, USA.

9. ASTM Standard D3815 (2011). Standard Practice for Accelerated Weathering of Pressure-Sensitive Tapes by Open-Flame Carbon-Arc Exposure Apparatus.

ASTM International. Philadelphia, USA.

10. ASTM Standard D4798 (2016). Standard Practice for Accelerated Weathering Test Conditions and Procedures for Bituminous Materials (Xenon-Arc Method).

ASTM International. Philadelphia, USA.

11. ASTM Standard D4799 (2017). Standard Practice for Accelerated Weathering Test Conditions and Procedures for Bituminous Materials (Fluorescent UV, Water Spray, and Condensation Method). ASTM International. Philadelphia, USA.

12. ASTM Standard D6551 (2011). Standard Practice for Accelerated Weathering of Pressure-Sensitive Tapes by Xenon-Arc Exposure Apparatus. ASTM International.

Philadelphia, USA.

13. ASTM Standard F1164 (2014). Standard Test Method for Evaluation of Transparent Plastics Exposed to Accelerated Weathering Combined with Biaxial Stress. ASTM International. Philadelphia, USA.

14. ASTM Standard G151 (2010). Practice for Exposing Nonmetallic Materials in Accelerated Test Devices That Use Laboratory Light Sources. ASTM International.

Philadelphia, USA.

15. ASTM Standard G152 (2013). Standard Practice for Operating Open Flame Carbon Arc Light Apparatus for Exposure of Nonmetallic Materials. ASTM International. Philadelphia, USA.

16. ASTM Standard G153 (2013). "Standard Practice for Operating Enclosed Carbon

17. ASTM Standard G154 (2016). Standard Practice for Operating Fluorescent Ultraviolet (UV) Lamp Apparatus for Exposure of Nonmetallic Materials. ASTM International. Philadelphia, USA.

18. ASTM Standard G155 (2013). Standard Practice for Operating Xenon Arc Light Apparatus for Exposure of Non-Metallic Materials. ASTM International.

Philadelphia, USA.

19. Babulanam, S. M., T. S. Eriksson, G. A. Niklasson and C. G. Granqvist (1987).

"Thermochromic VO2 films for energy-efficient windows." Solar Energy Materials 16(5): 347-363.

20. Brennan, P., C. Fedor and G. Pausch (1988). "Sunlight, UV and accelerated weathering." Paint and Resin 58: 17.

21. Brennan, P., C. Fedor and G. Pausch (2007). "Sunlight, Weathering and Light Stability Testing." Q-Lab Technical Bulletin LU-0822.

22. Briassoulis, D. and A. Aristopoulou (2002). A modified artificial ageing procedure for low density polyethylene (LDPE) agricultural films. Proceedings of the International Conference of Agricultural Engineers, AgEng.

23. Chaiyapinunt, S., B. Phueakphongsuriya, K. Mongkornsaksit and N. Khomporn (2005). "Performance rating of glass windows and glass windows with films in aspect of thermal comfort and heat transmission." Energy and Buildings 37(7):

725-738.

27. Dilara, P. and D. Briassoulis (2000). "Degradation and stabilization of low-density polyethylene films used as greenhouse covering materials." Journal of Agricultural Engineering Research 76(4): 309-321.

28. Dilara, P. A. and D. Briassoulis (1998). "Standard testing methods for mechanical properties and degradation of low density polyethylene (LDPE) films used as greenhouse covering materials: a critical evaluation." Polymer Testing 17(8): 549-585.

29. Dilara, P. A. and D. Briassoulis (2000). "Degradation and Stabilization of Low-density Polyethylene Films used as Greenhouse Covering Materials." Journal of Agricultural Engineering Research 76(4): 309-321.

30. Hamberg, I. and C. G. Granqvist (1986). "Evaporated Sn‐doped In2O3 films:

Basic optical properties and applications to energy‐efficient windows." Journal of Applied Physics 60(11): R123-R160.

31. ISO 4892-2 (2016). Plastics - Methods of exposure to laboratory light sources - Part 2: Xenon-arc lamps. International Organization for Standardization.

32. ISO 4892-3 (2016). "Plastics - Methods of exposure to laboratory light sources - Part 3: Fluorescent UV lamps." International Organization for Standardization.

33. ISO 4892-4 (2016). "Plastics - Methods of exposure to laboratory light sources -

34. ISO 16474-2 (2013). Paints and varnishes -- Methods of exposure to laboratory light sources -- Part 2: Xenon-arc lamps. International Organization for Standardization.

35. ISO 16474-3 (2013). Paints and varnishes -- Methods of exposure to laboratory light sources -- Part 3: Fluorescent UV lamps. International Organization for Standardization.

36. Jacques, L. F. E. (2000). "Accelerated and outdoor/natural exposure testing of coatings." Progress in Polymer Science 25(9): 1337-1362.

37. Köhl, M., G. Jorgensen, S. Brunold, B. Carlsson, M. Heck and K. Möller (2005).

"Durability of polymeric glazing materials for solar applications." Solar Energy 79(6): 618-623.

38. Kaushika, N. D. and K. Sumathy (2003). "Solar transparent insulation materials:

a review." Renewable and Sustainable Energy Reviews 7(4): 317-351.

39. Mohelnikova, J. (2009). "Materials for reflective coatings of window glass applications." Construction and Building Materials 23(5): 1993-1998.

40. Pospíšil, J., J. Pilař, N. C. Billingham, A. Marek, Z. Horák and S. Nešpůrek (2006).

"Factors affecting accelerated testing of polymer photostability." Polymer Degradation and Stability 91(3): 417-422.

41. Rabek, J. F. (2012). Photodegradation of polymers: physical characteristics and applications, Springer Science & Business Media.

42. SAE Standard J1960 (2008). Accelerated Exposure of Automotive Exterior Materials Using a Controlled Irradiance Water-Cooled Xenon Arc Apparatus. SAE International.

43. SAE Standard J2019 (2012). Highlight Keywords Accelerated Exposure of Automotive Exterior Materials Using a Controlled Irradiance Air-Cooled Xenon-Arc Apparatus. SAE International.

44. SAE Standard J2020 (2003). Accelerated Exposure of Automotive Exterior Materials Using a Fluorescent UV and Condensation Apparatus. SAE International.

45. SAE Standard J2212 (2012). Accelerated Exposure of Automotive Interior Trim Components Using a Controlled Irradiance Air-Cooled Xenon-Arc Apparatus.

SAE International.

46. Schulz, U. (2009). Accelerated testing: nature and artificial weathering in the coatings industry, Vincentz Network GmbH & Co KG.

47. Zheng, J., S. Bao and P. Jin (2015). "TiO2(R)/VO2(M)/TiO2(A) multilayer film as smart window: Combination of energy-saving, antifogging and self-cleaning functions." Nano Energy 11: 136-145.

48. 李訓谷, 陳文亮, 黃尊澤, 王佑萱 and 陳瑞鈴 (2010). "玻璃鍍膜面位置對 玻璃熱學性能之影響." 建築學報(72_S): 73-86.

49. 黃國倉 and 李宜臻 (2017). "既有建築外殼開口部應用玻璃隔熱膜節能改善 對策評估." 內政部建築研究所協同研究報告.

建築玻璃用隔熱膜性能衰減試驗方法研訂之研究 出版機關:內政部建築研究所

電話:(02)89127890

地址:新北市新店區北新路 3 段 200 號 13 樓 網址:http://www.abri.gov.tw

編者:羅時麒、黃國倉、黃瑞隆、陳世禎、賴怡廷 出版年月:107 年 12 月

版次:第 1 版

ISBN:978-986-05-7464-7 (平裝)

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