A system for free-air ozone concentration elevation with rice and wheat: Control performance and ozone exposure regime
A system for free-air concentration enrichment with ozone (FACE-O 3) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O 3] (A-O 3) or elevated [O 3] (E-O 3) without any enclosures. Ozone generated from pure O 2 and mixed with compressed air was r...
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Published in | Atmospheric environment (1994) Vol. 45; no. 35; pp. 6276 - 6282 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
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Kidlington
Elsevier Ltd
01.11.2011
Elsevier |
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Abstract | A system for free-air concentration enrichment with ozone (FACE-O
3) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O
3] (A-O
3) or elevated [O
3] (E-O
3) without any enclosures. Ozone generated from pure O
2 and mixed with compressed air was released into the E-O
3 plots from a 14 m diameter octagon. The gas release was controlled for each E-O
3 plot with an algorithm based on wind direction, wind speed and [O
3] at the center of the plot. With 1-min mean [O
3], the achieved elevation was within ±20% of the target, which is 50% above A-O
3, for 94% of time, and within ±10% of the target for 73% of time on average across 4 years from 2007 to 2010. Ozone fumigation ran on daytime, but was withheld when ambient [O
3] was below 20 ppb or leaves were wet. The discontinuity in O
3 release resulted in the daily mean 7 h [O
3] (M7, 900–1600 h Chinese Standard Time) in E-O
3 by only 24% higher than that in A-O
3. The average effective increase in AOT40 (accumulated [O
3] above the threshold of 40 ppb) was 115%. Ozone exposure regime in E-O
3 as characterized by M7 and AOT40 was compared with that in a scaled-up [O
3] (S-O
3), which was obtained by scaling A-O
3 by 1.24: the ratio of M7 in E-O
3 to that in A-O
3. For the same M7, E-O
3 had higher AOT40 than S-O
3, because E-O
3 had more high [O
3] peaks than S-O
3. The shift in AOT40 is only modest, however, and the [O
3] regime in E-O
3 was consistent with that in open-top chamber experiments in the past. This FACE-O
3 system can thus maintain elevated [O
3] in open field with modest alteration to [O
3] regime to an extent comparable to open-top chambers.
► We examined control performance and O
3 concentration regime in a FACE-ozone system. ► Control performance was comparable to or better than that in other systems. ► O
3 concentration regime in FACE-ozone system was peakier than that in ambient air. ► The change in O
3 regime could introduce small bias in crop yield loss estimation. |
---|---|
AbstractList | A system for free-air concentration enrichment with ozone (FACE-O₃) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O₃] (A-O₃) or elevated [O₃] (E-O₃) without any enclosures. Ozone generated from pure O₂ and mixed with compressed air was released into the E-O₃ plots from a 14 m diameter octagon. The gas release was controlled for each E-O₃ plot with an algorithm based on wind direction, wind speed and [O₃] at the center of the plot. With 1-min mean [O₃], the achieved elevation was within ±20% of the target, which is 50% above A-O₃, for 94% of time, and within ±10% of the target for 73% of time on average across 4 years from 2007 to 2010. Ozone fumigation ran on daytime, but was withheld when ambient [O₃] was below 20 ppb or leaves were wet. The discontinuity in O₃ release resulted in the daily mean 7 h [O₃] (M7, 900–1600 h Chinese Standard Time) in E-O₃ by only 24% higher than that in A-O₃. The average effective increase in AOT40 (accumulated [O₃] above the threshold of 40 ppb) was 115%. Ozone exposure regime in E-O₃ as characterized by M7 and AOT40 was compared with that in a scaled-up [O₃] (S-O₃), which was obtained by scaling A-O₃ by 1.24: the ratio of M7 in E-O₃ to that in A-O₃. For the same M7, E-O₃ had higher AOT40 than S-O₃, because E-O₃ had more high [O₃] peaks than S-O₃. The shift in AOT40 is only modest, however, and the [O₃] regime in E-O₃ was consistent with that in open-top chamber experiments in the past. This FACE-O₃ system can thus maintain elevated [O₃] in open field with modest alteration to [O₃] regime to an extent comparable to open-top chambers. A system for free-air concentration enrichment with ozone (FACE-O sub(3)) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O sub(3)] (A-O sub(3)) or elevated [O sub(3)] (E-O sub(3)) without any enclosures. Ozone generated from pure O sub(2) and mixed with compressed air was released into the E-O sub(3) plots from a 14 m diameter octagon. The gas release was controlled for each E-O sub(3) plot with an algorithm based on wind direction, wind speed and [O sub(3)] at the center of the plot. With 1-min mean [O sub(3)], the achieved elevation was within +/-20% of the target, which is 50% above A-O sub(3), for 94% of time, and within +/-10% of the target for 73% of time on average across 4 years from 2007 to 2010. Ozone fumigation ran on daytime, but was withheld when ambient [O sub(3)] was below 20 ppb or leaves were wet. The discontinuity in O sub(3) release resulted in the daily mean 7 h [O sub(3)] (M7, 900-1600 h Chinese Standard Time) in E-O sub(3) by only 24% higher than that in A-O sub(3). The average effective increase in AOT40 (accumulated [O sub(3)] above the threshold of 40 ppb) was 115%. Ozone exposure regime in E-O sub(3) as characterized by M7 and AOT40 was compared with that in a scaled-up [O sub(3)] (S-O sub(3)), which was obtained by scaling A-O sub(3) by 1.24: the ratio of M7 in E-O sub(3) to that in A-O sub(3). For the same M7, E-O sub(3) had higher AOT40 than S-O sub(3), because E-O sub(3) had more high [O sub(3)] peaks than S-O sub(3). The shift in AOT40 is only modest, however, and the [O sub(3)] regime in E-O sub(3) was consistent with that in open-top chamber experiments in the past. This FACE-O sub(3) system can thus maintain elevated [O sub(3)] in open field with modest alteration to [O sub(3)] regime to an extent comparable to open-top chambers. A system for free-air concentration enrichment with ozone (FACE-O₃) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O₃] (A-O₃) or elevated [O₃] (E-O₃) without any enclosures. Ozone generated from pure O₂ and mixed with compressed air was released into the E-O₃ plots from a 14 m diameter octagon. The gas release was controlled for each E-O₃ plot with an algorithm based on wind direction, wind speed and [O₃] at the center of the plot. With 1-min mean [O₃], the achieved elevation was within ±20% of the target, which is 50% above A-O₃, for 94% of time, and within ±10% of the target for 73% of time on average across 4 years from 2007 to 2010. Ozone fumigation ran on daytime, but was withheld when ambient [O₃] was below 20 ppb or leaves were wet. The discontinuity in O₃ release resulted in the daily mean 7 h [O₃] (M7, 900–1600 h Chinese Standard Time) in E-O₃ by only 24% higher than that in A-O₃. The average effective increase in AOT40 (accumulated [O₃] above the threshold of 40 ppb) was 115%. Ozone exposure regime in E-O₃ as characterized by M7 and AOT40 was compared with that in a scaled-up [O₃] (S-O₃), which was obtained by scaling A-O₃ by 1.24: the ratio of M7 in E-O₃ to that in A-O₃. For the same M7, E-O₃ had higher AOT40 than S-O₃, because E-O₃ had more high [O₃] peaks than S-O₃. The shift in AOT40 is only modest, however, and the [O₃] regime in E-O₃ was consistent with that in open-top chamber experiments in the past. This FACE-O₃ system can thus maintain elevated [O₃] in open field with modest alteration to [O₃] regime to an extent comparable to open-top chambers. A system for free-air concentration enrichment with ozone (FACE-O 3) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in either ambient [O 3] (A-O 3) or elevated [O 3] (E-O 3) without any enclosures. Ozone generated from pure O 2 and mixed with compressed air was released into the E-O 3 plots from a 14 m diameter octagon. The gas release was controlled for each E-O 3 plot with an algorithm based on wind direction, wind speed and [O 3] at the center of the plot. With 1-min mean [O 3], the achieved elevation was within ±20% of the target, which is 50% above A-O 3, for 94% of time, and within ±10% of the target for 73% of time on average across 4 years from 2007 to 2010. Ozone fumigation ran on daytime, but was withheld when ambient [O 3] was below 20 ppb or leaves were wet. The discontinuity in O 3 release resulted in the daily mean 7 h [O 3] (M7, 900–1600 h Chinese Standard Time) in E-O 3 by only 24% higher than that in A-O 3. The average effective increase in AOT40 (accumulated [O 3] above the threshold of 40 ppb) was 115%. Ozone exposure regime in E-O 3 as characterized by M7 and AOT40 was compared with that in a scaled-up [O 3] (S-O 3), which was obtained by scaling A-O 3 by 1.24: the ratio of M7 in E-O 3 to that in A-O 3. For the same M7, E-O 3 had higher AOT40 than S-O 3, because E-O 3 had more high [O 3] peaks than S-O 3. The shift in AOT40 is only modest, however, and the [O 3] regime in E-O 3 was consistent with that in open-top chamber experiments in the past. This FACE-O 3 system can thus maintain elevated [O 3] in open field with modest alteration to [O 3] regime to an extent comparable to open-top chambers. ► We examined control performance and O 3 concentration regime in a FACE-ozone system. ► Control performance was comparable to or better than that in other systems. ► O 3 concentration regime in FACE-ozone system was peakier than that in ambient air. ► The change in O 3 regime could introduce small bias in crop yield loss estimation. |
Author | Liu, Gang Zhu, Jianguo Tang, Haoye Han, Yong Kobayashi, Kazuhiko |
Author_xml | – sequence: 1 givenname: Haoye surname: Tang fullname: Tang, Haoye organization: State Key Laboratory of Soil and Sustainable Agriculture, Institute of Soil Sciences, Chinese Academy of Sciences, Nanjing, 210008 Jiangsu, China – sequence: 2 givenname: Gang surname: Liu fullname: Liu, Gang organization: State Key Laboratory of Soil and Sustainable Agriculture, Institute of Soil Sciences, Chinese Academy of Sciences, Nanjing, 210008 Jiangsu, China – sequence: 3 givenname: Yong surname: Han fullname: Han, Yong organization: State Key Laboratory of Soil and Sustainable Agriculture, Institute of Soil Sciences, Chinese Academy of Sciences, Nanjing, 210008 Jiangsu, China – sequence: 4 givenname: Jianguo surname: Zhu fullname: Zhu, Jianguo organization: State Key Laboratory of Soil and Sustainable Agriculture, Institute of Soil Sciences, Chinese Academy of Sciences, Nanjing, 210008 Jiangsu, China – sequence: 5 givenname: Kazuhiko surname: Kobayashi fullname: Kobayashi, Kazuhiko email: aclasman@mail.ecc.u-tokyo.ac.jp organization: Graduate School of Agricultural and Life Sciences, The University of Tokyo, 1-1-1 Yayoi, Bunkyo-ku, Tokyo 113-8657, Japan |
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Keywords | Ozone Open-top chamber FACE Wheat Rice Ozone dose metrics Monocotyledones Atmospheric condition Photochemical oxidants Fumigation Gas release Plant leaf Algorithm Oryza sativa Gramineae Angiospermae Air pollution Spermatophyta Performance |
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Snippet | A system for free-air concentration enrichment with ozone (FACE-O
3) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in... A system for free-air concentration enrichment with ozone (FACE-O₃) was installed in a field in Jiangsu Province of China to grow wheat and rice plants in... A system for free-air concentration enrichment with ozone (FACE-O sub(3)) was installed in a field in Jiangsu Province of China to grow wheat and rice plants... |
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SubjectTerms | air algorithms Applied sciences atmospheric chemistry Atmospheric pollution China Exact sciences and technology FACE free air carbon dioxide enrichment fumigation leaves Open-top chamber Oryza sativa oxygen Ozone Ozone dose metrics Pollution Rice Triticum aestivum Wheat wind direction wind speed |
Title | A system for free-air ozone concentration elevation with rice and wheat: Control performance and ozone exposure regime |
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