短期CO2加富对凤梨光合作用及生长发育的影响

doi:10.3773/j.issn.1005-264x.2008.02.021

摘要/Abstract

摘要：

研究了CO₂加富对丹尼斯凤梨(Guzmania 'Denise')和吉利凤梨(Guzmania 'Cherry')叶片光合速率、植株生长、开花和光合相关酶活性的影响。结果表明,处理30 d期间,处理(600±40)、(900±40) μmolCO₂·mol^-1的净光合速率分别比同期对照增加了6.24%~31.91%和11.92%~41.48%;CO₂加富下促进了叶片中可溶性糖和淀粉的积累,蒸腾速率和气孔导度下降,Rubisco活性增加,乙醇酸氧化酶活性则明显下降。(600±40) μmolCO₂·mol^-1处理下的株高、叶面积分别比同期对照下增加了6.94%~14.63%和1.66%~7.06%,而处理(900±40) μmolCO₂·mol^-1下分别增加了9.71%~20.85%和2.87%~11.62%;CO₂加富下促进了干重和鲜重的积累。此外,CO₂加富提前了吉利凤梨的花期。

关键词: 丹尼斯凤梨, 吉利凤梨, 光合速率, CO₂, 生长

Abstract:

Aims Our objective was to determine the effects of elevated CO₂ concentration on photosynthetic characteristics, growth rate, flowering percentage and activity of photosynthetic enzyme in Guzmania 'Denise' and Guzmania 'Cherry'.
Methods We measured P_n, G_s and T_r under various growth conditions using the Li-6400 and used the data to calculate WUE (water use efficiency, WUE=P_n/T_r). We determined chlorophyll and total soluble sugar levels by the method of Zhang & Qu (2003), starch content by the method of Xu et al. (1998) and rubisco and glycolic acid oxidase levels by the method of Ye et al. (1993).
Important findings Under two elevated CO₂ concentrations, net photosynthetic rate increased by 6.24%-31.91% and 11.92%-41.48% over plants grown in ambient CO₂ concentration during 30 d. Elevated CO₂ concentration caused a marked rise in soluble sugar and starch accumulation in leaves, but significantly reduced stomatal conductance and transpiration rate. In addition, Rubisco activity was increased, and glycolate oxidase activity obviously was decreased. Plant height and leaf area increased 6.94%-14.63% and 1.66%-7.06% over plants grown in ambient CO₂. There were 9.71%-20.85% and 2.87%-11.62% increases for (900±40) μmol CO₂·mol^-1. Dry and fresh weights also increased with elevated CO₂ concentration, as was flowering in Guzmania 'Cherry'.

Key words: Guzmania 'Denise', Guzmania 'Cherry', net photosynthetic rate, CO₂, growth

惠俊爱, 叶庆生. 短期CO₂加富对凤梨光合作用及生长发育的影响. 植物生态学报, 2008, 32(2): 424-430. DOI: 10.3773/j.issn.1005-264x.2008.02.021

HUI Jun-Ai, YE Qing-Sheng. EFFECTS OF ELEVATED CO₂ CONCENTRATION ON PHOTOSYNTHSIS, GROWTH AND DEVELOPMENT OF THE BROMELIAD GUZMANIA. Chinese Journal of Plant Ecology, 2008, 32(2): 424-430. DOI: 10.3773/j.issn.1005-264x.2008.02.021

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链接本文: https://www.plant-ecology.com/CN/10.3773/j.issn.1005-264x.2008.02.021

https://www.plant-ecology.com/CN/Y2008/V32/I2/424

图/表 6

参考文献 21

[1]	Delucia EH, Sasek TW, Strain BR (1985). Photosynthetic inhibition after long-term exposure to elevated levels of atmospheric carbon dioxide. Photosynthesis Research, 7, 175-184. DOI URL PMID
[2]	Geng XH (耿显华), Yu D (于丹), Huang YM (黄永明), Xie YH (谢永宏), Yang YQ (杨永清) (2004). Growth and physio-biochemistry responses of Vallisneria spiraslis L. to CO₂ enrichment. Acta Hydrobiologica Sinica (水生生物学报). 28, 304-309. (in Chinese with English abstract)
[3]	Genthon G, Barnola JM, Raynaud D, Lorius C, Jouzel J, Barkov NI, Korotkevich YS, Kotlyakov VM (1987). Vostok ice core: climate response to CO₂ and orbital forcing changes over the last climatic cycle. Nature, 329, 414-418. DOI URL
[4]	Jiang GM (蒋高明), Han XG (韩兴国), Lin GH (林光辉) (1997). Response of plant growth to elevated [CO₂]: a review on the chief methods and basic conclusions based on experiments in the external countries in past decade. Acta Phytoecologica Sinica (植物生态学报), 21, 489-502. (in Chinese with English abstract)
[5]	Jiang YL (蒋跃林), Zhang QG (张庆国), Yang SY (杨书运), Zhang SD (张仕定), Wu J (吴健) (2006). Ecophysiological responses of 28 species of garden plants to atmospheric CO₂ enrichment. Journal of Plant Resources and Environment (植物资源与环境学报), 15(2), 1-6. (in Chinese with English abstract)
[6]	Li YH (李永华), Liu LN (刘丽娜), Ye QS (叶庆生) (2005). Effects of elevated CO₂ on the growth and photosynthesis of Anthurium andraeanum. Journal of Tropical and Subtropical Botany (热带亚热带植物学报), 13, 343-346. (in Chinese with English abstract)
[7]	Lin FP (林丰平), Chen ZH (陈章和), Chen ZP (陈兆平), Zhang DM (张德明) (1999). Physiological and biochemical responses of the seedlings of four legume tree species to high CO₂ concentration. Acta Phytoecologica Sinica (植物生态学报), 23, 220-227. (in Chinese with English abstract)
[8]	Lin WH (林伟宏) (1998). Response of photosynthesis to elevated atmospheric CO₂. Acta Ecologica Sinica (生态学报), 18, 529-538. (in Chinese with English abstract)
[9]	Liu JX (刘金祥), Li ZF (李志芳) (2005). Effects of CO₂ concentrations increasing on photosynthetic physiological characteristics of Wedelia trlobata. Guihaia (广西植物), 25, 477-480. (in Chinese with English abstract)
[10]	Liu JX (刘金祥), Mai JL (麦嘉玲), Liu JQ (刘家琼) (2004). Influence of different CO₂ concentrations on photosynthetic physiological characteristics of Ophiopogon japonicus. Grassland of China (中国草地), 26, 13-17. (in Chinese with English abstract)
[11]	Moore BD, Cheng SH, Sims D, Seemann JR (1999). The biochemical and molecular basis for photosynthetic acclimation to elevated atmospheric CO₂. Plant, Cell and Environment, 22, 567-582. DOI URL
[12]	Pan HT (潘会堂), Liu XL (刘秀丽), Zhang QX (张启翔) (2003). Influences of CO₂ enrichment on ornamental plant production. Journal of Beijing Forestry University (北京林业大学学报), 25(1), 93-99. (in Chinese with English abstract)
[13]	Socias FX, Medrano H, Sharkey TD (1993). Feed back limitation of photosynthesis of Phaseolus vulgaris L. grow in elevated CO₂. Plant, Cell and Environment, 16, 81-86.
[14]	Strain BR (1987). Direct effects of increasing CO₂ on plant and ecosystem. Trends in Ecology & Evolution, 2, 18-21.
[15]	Su PX (苏培玺), Du MW (杜明武), Zhang LX (张立新), Bi YR (毕玉蓉), Zhao AF (赵爱芬), Liu XM (刘新民) (2002). Changes of photosynthetic characteristics and response to rising CO₂ concentration in strawberry in solar greenhouse. Acta Horticulturae Sinica (园艺学报), 29, 423-426. (in Chinese with English abstract)
[16]	Sun J, Gibson KM, Kiirats O, Okita TW, Edwards GE (2002). Interactions of nitrate and CO₂ enrichment on growth, carbohydrates, and rubisco in Arabidopsis starch mutants. Significance of starch and hexose. Plant Physiology, 130, 1573-1583.
[17]	Wang JM (王精明), Li YH (李永华), Huang SQ (黄胜琴), Liu LN (刘丽娜), Ye QS (叶庆生) (2005). Effects of elevated CO₂ concentration on photosynthetic rate, growth and development in Anthurium andraeanum Lind leaves. Acta Horticulturae Sinica (园艺学报), 32, 335-338. (in Chinese with English abstract)
[18]	Wei SL (魏胜林), Liu YH (刘业好), Qu HY (屈海泳), Fu SL (傅松玲), Fu YL (傅玉兰) (2001). Effects of high CO₂ concentration on physiological and biochemical processes in Lilly (Lilium dauricum). Acta Phytoecologica Sinica (植物生态学报), 25, 410-413. (in Chinese with English abstract)
[19]	Xu CJ (徐昌杰), Chen WJ (陈文峻), Chen KS (陈昆松), Zhang SL (张上隆) (1998). A simple method for determining the content of starch-iodine colorimety. Biotechnology (生物技术), 8(2), 41-43. (in Chinese)
[20]	Ye QS (叶庆生), Pan RC (潘瑞炽), Qiu CX (丘才新) (1993). Study on the photosynthetic pathway of Cymbidium sinense. Acta Botanica Sinica (植物学报), 35, 441-446. (in Chinese with English abstract)
[21]	Zhang ZL (张志良), Qu WJ (瞿伟菁) (2003). Experimental Guide of Plant Physiology (植物生理学实验指导) 3rd edn. Higher Education Press, Beijing, 88-92-169-170. (in Chinese)

	时间 Time(d)	处理	可溶性糖 Soluble sugar (mg·g^-1 DW)	淀粉 Starch (mg·g^-1 FW)	叶绿素 Chlorophyll
	时间 Time(d)	处理	可溶性糖 Soluble sugar (mg·g^-1 DW)	淀粉 Starch (mg·g^-1 FW)	a+b(mg·g^-1 FW)	a/b
丹尼斯凤梨 Guzmania 'Denise'	0	CK	7.27±0.32	8.12±0.25	1.60±0.18	2.31±0.21
	10	CK	7.75±0.84	8.20±0.87	1.55±0.24	2.23±0.17
		T₁	8.53±0.32	8.95±1.45	1.72±0.17	2.40±0.22
		T₂	9.15±1.20	9.49±1.58	1.79±0.32	2.41±0.25
	20	CK	8.35±0.95^b	7.63±1.24^c	1.22±0.29	2.11±0.12
		T₁	9.17±0.75^b	9.78±2.06^b	1.47±0.27	2.33±0.31
		T₂	11.35±1.23^a	11.26±3.71^a	1.60±0.18	2.34±0.18
	30	CK	10.12±0.85^b	8.85±0.95	1.21±0.17	2.29±0.18
		T₁	11.42±0.52^a	9.75±1.32	1.13±0.19	2.06±0.12
		T₂	13.11±1.45^a	10.43±1.75	1.11±0.21	2.13±0.31
吉利凤梨 Guzmania 'Cherry'	0	CK	8.15±0.32	7.85±0.25	2.40±0.22	2.30±0.33
	10	CK	9.75±0.60	8.13±0.93	2.39±0.31	2.21±0.18
		T₁	10.47±0.52	8.65±0.52	1.72±0.16	2.04±0.14
		T₂	11.65±0.93	9.35±0.71	1.58±0.21	2.05±0.17
	20	CK	10.35±0.42^b	8.35±0.31^b	1.56±0.15	2.35±0.18
		T₁	11.75±0.20^a	9.65±0.52^a	1.57±0.24	2.14±0.12
		T₂	12.66±0.62^a	10.25±0.75^a	1.47±0.17	2.06±0.11
	30	CK	11.31±0.60^b	8.52±0.93^b	1.39±0.31	2.20±0.16
		T₁	13.12±0.52^a	10.12±0.52^a	1.36±0.24	2.35±0.11
		T₂	14.95±0.93^a	11.35±0.71^a	1.30±0.15	2.14±0.31

	时间 Time(d)	处理	可溶性糖 Soluble sugar (mg·g^-1 DW)	淀粉 Starch (mg·g^-1 FW)	叶绿素 Chlorophyll
	时间 Time(d)	处理	可溶性糖 Soluble sugar (mg·g^-1 DW)	淀粉 Starch (mg·g^-1 FW)	a+b(mg·g^-1 FW)	a/b
丹尼斯凤梨 Guzmania 'Denise'	0	CK	7.27±0.32	8.12±0.25	1.60±0.18	2.31±0.21
	10	CK	7.75±0.84	8.20±0.87	1.55±0.24	2.23±0.17
		T₁	8.53±0.32	8.95±1.45	1.72±0.17	2.40±0.22
		T₂	9.15±1.20	9.49±1.58	1.79±0.32	2.41±0.25
	20	CK	8.35±0.95^b	7.63±1.24^c	1.22±0.29	2.11±0.12
		T₁	9.17±0.75^b	9.78±2.06^b	1.47±0.27	2.33±0.31
		T₂	11.35±1.23^a	11.26±3.71^a	1.60±0.18	2.34±0.18
	30	CK	10.12±0.85^b	8.85±0.95	1.21±0.17	2.29±0.18
		T₁	11.42±0.52^a	9.75±1.32	1.13±0.19	2.06±0.12
		T₂	13.11±1.45^a	10.43±1.75	1.11±0.21	2.13±0.31
吉利凤梨 Guzmania 'Cherry'	0	CK	8.15±0.32	7.85±0.25	2.40±0.22	2.30±0.33
	10	CK	9.75±0.60	8.13±0.93	2.39±0.31	2.21±0.18
		T₁	10.47±0.52	8.65±0.52	1.72±0.16	2.04±0.14
		T₂	11.65±0.93	9.35±0.71	1.58±0.21	2.05±0.17
	20	CK	10.35±0.42^b	8.35±0.31^b	1.56±0.15	2.35±0.18
		T₁	11.75±0.20^a	9.65±0.52^a	1.57±0.24	2.14±0.12
		T₂	12.66±0.62^a	10.25±0.75^a	1.47±0.17	2.06±0.11
	30	CK	11.31±0.60^b	8.52±0.93^b	1.39±0.31	2.20±0.16
		T₁	13.12±0.52^a	10.12±0.52^a	1.36±0.24	2.35±0.11
		T₂	14.95±0.93^a	11.35±0.71^a	1.30±0.15	2.14±0.31

	时间 Time(d)	CO₂	核酮糖1,5二磷酸羧化酶活性 Rubisco activity (CO₂ nmol·mg^-1 protein·min^-1)	乙醇酸氧化酶活性 Glycolate oxidase activity (Glyoxylate μmol·mg^-1 protein·min^-1)
丹尼斯凤梨 Guzmania 'Denise'	0	CK	11.86±0.72	20.07±2.35
	10	CK	12.15±0.84	20.12±2.05^a
		T₁	12.41±0.56	18.65±1.21^b
		T₂	12.64±1.34	17.82±1.34^b
	20	CK	12.37±0.97^b	20.95±2.24^a
		T₁	12.72±0.85^b	17.12±1.76^b
		T₂	13.87±0.74^a	16.95±1.43^b
	30	CK	12.48±0.85^b	21.08±1.95^a
		T₁	13.56±0.78^b	16.66±1.32^b
		T₂	14.75±1.25^a	15.46±1.25^b
吉利凤梨 Guzmania 'Cherry'	0	CK	14.86±1.12	22.07±2.75
	10	CK	15.02±1.45	22.38±1.93
		T₁	15.26±1.34	21.35±1.55
		T₂	15.61±0.94	20.75±1.85
	20	CK	15.32±0.42^b	22.75±2.52^a
		T₁	15.75±0.63^b	20.16±1.52^b
		T₂	16.55±0.75^a	19.45±1.15^b
	30	CK	15.48±0.45^b	23.08±2.93^a
		T₁	16.56±1.15^b	18.66±1.35^b
		T₂	17.75±1.47^a	17.46±0.75^b

	时间 Time(d)	CO₂	核酮糖1,5二磷酸羧化酶活性 Rubisco activity (CO₂ nmol·mg^-1 protein·min^-1)	乙醇酸氧化酶活性 Glycolate oxidase activity (Glyoxylate μmol·mg^-1 protein·min^-1)
丹尼斯凤梨 Guzmania 'Denise'	0	CK	11.86±0.72	20.07±2.35
	10	CK	12.15±0.84	20.12±2.05^a
		T₁	12.41±0.56	18.65±1.21^b
		T₂	12.64±1.34	17.82±1.34^b
	20	CK	12.37±0.97^b	20.95±2.24^a
		T₁	12.72±0.85^b	17.12±1.76^b
		T₂	13.87±0.74^a	16.95±1.43^b
	30	CK	12.48±0.85^b	21.08±1.95^a
		T₁	13.56±0.78^b	16.66±1.32^b
		T₂	14.75±1.25^a	15.46±1.25^b
吉利凤梨 Guzmania 'Cherry'	0	CK	14.86±1.12	22.07±2.75
	10	CK	15.02±1.45	22.38±1.93
		T₁	15.26±1.34	21.35±1.55
		T₂	15.61±0.94	20.75±1.85
	20	CK	15.32±0.42^b	22.75±2.52^a
		T₁	15.75±0.63^b	20.16±1.52^b
		T₂	16.55±0.75^a	19.45±1.15^b
	30	CK	15.48±0.45^b	23.08±2.93^a
		T₁	16.56±1.15^b	18.66±1.35^b
		T₂	17.75±1.47^a	17.46±0.75^b

时间 Time(d)	处理 Treatment	丹尼斯凤梨 Guzmania 'Denise'		吉利凤梨Guzmania 'Cherry'
时间 Time(d)	处理 Treatment	株高 Plant height (cm)	叶面积 Leaf area (cm²)	株高 Plant height (cm)	叶面积 Leaf area (cm²)	开花率 Flowering rate(%)
0	CK	24.56±0.46	96.25±4.52	23.40±0.60	92.23±1.56	0
10	CK	25.42±1.35	97.39±6.65	24.12±0.44	94.75±1.35	0
	T₁	27.65±1.62	99.01± 6.55	27.65±0.72	99.45±1.65	0
	T₂	30.72±1.65	102.08±8.25	28.05±0.60	101.25±2.25	0
20	CK	27.82±2.45	98.83±5.35	25.75±1.15^b	96.35±2.15^c	0
	T₁	29.75±2.32	101.67±8.35	27.75±0.86^a	103.15±2.16^b	0
	T₂	32.63±1.67	104.98±10.85	28.25±0.75^a	107.55±1.03^a	0
30	CK	28.34±0.45^b	99.25±4.55^b	26.45±0.72^b	98.85±2.65^b	0^C
	T₁	31.45±0.87^a	103.53±6.35^ab	28.86±0.44^a	102.25±2.86^ab	10^B
	T₂	33.26±1.32^a	106.75±10.75^a	30.33±0.60^a	105.35±2.66^a	20^A

短期CO₂加富对凤梨光合作用及生长发育的影响

EFFECTS OF ELEVATED CO₂ CONCENTRATION ON PHOTOSYNTHSIS, GROWTH AND DEVELOPMENT OF THE BROMELIAD GUZMANIA

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	时间 Time (d)	处理 Treatment	鲜重 Fresh weight (g)	干重 Dry weight (g)
丹尼斯凤梨Guzmania‘Denise’	0	CK	96.31±7.65	15.61±0.65
	30	CK	127.39±11.41^c	21.42±1.35^c
		T₁	148.37±18.48^b	24.27±1.77^b
		T₂	165.23±16.68^a	27.37±1.41^a
吉利凤梨Guzmania‘Cherry’	0	CK	142.75±6.52	25.65±7.43
	30	CK	175.38±10.41^c	30.12±6.21^B
		T₁	204.45±15.61^b	32.97±6.41^B
		T₂	228.75±16.38^a	38.75±8.77^A

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