绿华岛4种潮间带大型海藻光合活性对升温及光质的响应

doi:10.11978/2024157

Abstract

Abstract:

In order to reveal the photosynthetic response of intertidal macroalgae to temperature rise and their photosynthetic efficiency under different light qualities and provide a theoretical basis for the construction of island seaweed farms and the cultivation of seaweed, we used chlorophyll fluorescence and dissolved oxygen sensors to examine the photosynthetic responses of four macroalgae (Ulva pertusa, Grateloupia livida, Sargassum thunbergii and Sargassum fusiforme) from the intertidal zone of Lühua Island to temperatures (15℃, 20℃, and 25℃) and light quality (white, red, green, and blue). The results showed that temperature rise reduced the maximum quantum yield (F_v/F_m) of Photosystem Ⅱ (PSII), but significantly enhanced the actual quantum yield [Y(Ⅱ)], the ratio of photosynthetic repair to damage rate (r/k) and photochemical quenching (qP) under high light intensity (900 μmol photons·m^-2·s^-1) in these seaweeds. Temperature rise significantly increased the non-photochemical quenching (NPQ) of S. fusiforme, but significantly decreased that of G. livida. Compared to other seaweeds, S. thunbergii exhibited the highest maximum relative electron transfer rate (rETR_max), half-saturated light intensity (E_k), qP and r/k. Under white, red and green light, these seaweeds showed no significant differences in maximum photosynthetic rate (P_max), but their P_max was significantly reduced under blue light, with the greatest decrease observed in U. pertusa. As shown in our study, the photosynthetic responses of different species to temperature rise and light quality varied considerably, and short-term warming helps the four intertidal macroalgae to resist strong light at low tide and improve their photosynthetic activity under strong light. Notably, S. thunbergii showed higher photosynthetic activity and better adaptation to strong light and temperature rise than the other three. Additionally, the high photosynthetic efficiency under red and green light reflects their good adaptation to the shallow-water environment in the intertidal zone.

Key words: macroalgae, intertidal zone, temperature rise, light quality, photosynthesis

CLC Number:

Q945.11

OU Jiaming, WANG Shuhan, ZHAO Xu, CHEN Jianqu, SUN Jianing, ZOU Qiao, WANG Kaiyi, ZHANG Shouyu, WANG Kai. Response of photosynthetic activity to temperature rise and light quality of four intertidal macroalgae from Lühua Island, Zhejiang, China[J].Journal of Tropical Oceanography, 2025, 44(3): 72-84.

Figures/Tables 9

图a

Fig. 2

Tab. 1

Fig. 3

Fig. 4

Fig. 5

Fig. 6

Fig. 7

Tab. 2

References 64

[1]	程晓鹏, 2019. 大型海藻光合活性对不同温度和光照的响应[D]. 上海: 上海海洋大学:21.
	CHENG XIAOPENG, 2019. Response of photosynthetic activity of large seaweed to different environmental conditions[D]. Shanghai: Shanghai Ocean University:21 (in Chinese with English abstract).
[2]	程晓鹏, 章守宇, 林军, 等, 2020. 海带孢子体光合活性对不同温度和光照的响应[J]. 水产学报, 44(2): 234-244.
	CHENG XIAOPENG, ZHANG SHOUYU, LIN JUN, et al, 2020. Response of photosynthetic activity to different temperature and light intensities in Saccharina japonica sporophyte[J]. Journal of Fisheries of China, 44(2): 234-244 (in Chinese with English abstract).
[3]	杜响, 骆其君, 陈海敏, 2023. 不同绿藻对模拟酸雨胁迫的生理生化响应特征[J]. 热带海洋学报, 42(5): 115-123.
	DU XIANG, LUO QIJUN, CHEN HAIMIN, 2023. Physiological and biochemical responses of different species of chlorophyta to simulated acid rain stress[J]. Journal of Tropical Oceanography, 42(5): 115-123 (in Chinese with English abstract).
[4]	付倩倩, 李航霄, 吴海龙, 等, 2018. 光强对缘管浒苔(Ulva linza)光合生理特性和短期温度效应的影响[J]. 海洋与湖沼, 49(5): 967-974.
	FU QIANQIAN, LI HANGXIAO, WU HAILONG, et al, 2018. Effects of light intensity on photosynthetic physiology characteristic and short-time temperature reaction of Ulva linza[J]. Oceanologia et Limnologia Sinica, 49(5): 967-974 (in Chinese with English abstract).
[5]	龚静雨, 2020. 大型海藻生长和光合功能对不同LED光质的响应研究[D]. 广州: 华南理工大学:43.
	GONG JINGYU, 2020. Study on the response of the growth and photosynthetic function to different LEDs light qualities in marine macroalgae[D]. Guangzhou: South China University of Technology:43 (in Chinese with English abstract).
[6]	郭赣林, 董双林, 董云伟, 2006. 温度及其波动对孔石莼生长及光合作用的影响[J]. 中国海洋大学学报, 36(6): 941-945.
	GUO GANLIN, DONG SHUANGLIN, DONG YUNWEI, 2006. Effects of constant and diel fluctuating temperatures on the growth and photosynthesis of the Macroalgae Ulva pertusa Kjellm[J]. Periodical of Ocean University of China, 36(6): 941-945 (in Chinese with English abstract).
[7]	何培民, 段元亮, 刘巧, 等, 2021. 我国近海大型海藻生态修复策略与典型案例[J]. 应用海洋学学报, 40(4): 557-563.
	HE PEIMIN, DUAN YUANLIANG, LIU QIAO, et al, 2021. Strategy of macroalgae eco-remediation with cases in nearshore China[J]. Journal of Applied Oceanography, 40(4): 557-563 (in Chinese with English abstract).
[8]	黄永健, 崔建军, 陈心怡, 等, 2023. 异枝江蓠对温度和光照强度的光合生理响应[J]. 南方水产科学, 19(4): 139-147.
	HUANG YONGJIAN, CUI JIANJUN, CHEN XINYI, et al, 2023. Photophysiological responses of Gracilariopsis bailinae to temperature and light intensity[J]. South China Fisheries Science, 19(4): 139-147 (in Chinese with English abstract).
[9]	李宝齐, 徐智广, 李凌雪, 等, 2024. 海黍子对强光的光合响应及适应能力研究[J]. 海洋渔业, 46(3): 361-370.
	LI BAOQI, XU ZHIGUANG, LI LINGXUE, et al, 2024. Response and adaptation of Sargassum muticum to light changes[J]. Marine Fisheries, 46(3): 361-370 (in Chinese with English abstract).
[10]	李刚, 万明月, 史晓寒, 等, 2022. 中沙大环礁四种大型海藻的光生理特征比较及其对升温的响应[J]. 热带海洋学报, 41(3): 101-110. doi: 10.11978/2021105
	LI GANG, WANG MINGYUE, SHI XIAOHAN, et al, 2022. Comparative study on photophysiology of four macroalgae from the Zhongsha Atoll, with special reference to the effects of temperature rise[J]. Journal of Tropical Oceanography, 41(3): 101-110 (in Chinese with English abstract).
[11]	刘棋琴, 羊芃, 马明婕, 等, 2018. 温度对4种大型海藻氮磷吸收效率及光合生理特性的影响[J]. 水生生物学报, 42(5): 1050-1056.
	LIU QIQIN, YANG PENG, MA MINGJIE, et al, 2018. The effects of temperature on the absorption efficiency of nitrogen and phosphorus and photosynthetic physiological charateristics in four macroalgae species[J]. Acta Hydrobiologica Sinica, 42(5): 1050-1056 (in Chinese with English abstract).
[12]	杨宇峰, 罗洪添, 王庆, 等, 2021. 大型海藻规模栽培是增加海洋碳汇和解决近海环境问题的有效途径[J]. 中国科学院院刊, 36(3): 259-269.
	YANG YUFENG, LUO HONGTIAN, WANG QING, et al, 2021. Large-scale cultivation of seaweed is effective approach to increase marine carbon sequestration and solve coastal environmental problems[J]. Bulletin of Chinese Academy of Sciences, 36(3): 259-269 (in Chinese with English abstract).
[13]	张建琳, 包炎琳, 孙彬, 等, 2023. 下三横山岛潮间带大型海藻群落构成及季节变化[J]. 应用海洋学学报, 42(2): 225-234.
	ZHANG JIANLIN, BAO YANLIN, SUN BIN, et al, 2023. Composition and seasonal changes of macroalgae community in intertidal zone of Xiasanhengshan Island[J]. Journal of Applied Oceanography, 42(2): 225-234 (in Chinese with English abstract).
[14]	章守宇, 崔潇, 汪振华, 等, 2021. 枸杞岛贻贝养殖筏架附着海藻的群落结构[J]. 水产学报, 45(5): 726-739.
	ZHANG SHOUYU, CUI XIAO, WANG ZHENHUA, et al, 2021. Community structure of epiphytic macroalgae on mussel culture rafts in Gouqi Island[J]. Journal of Fisheries of China, 45(5): 726-739 (in Chinese with English abstract).
[15]	赵旭, 2022. 枸杞岛海藻场大型海藻光合生理及生态效应研究[D]. 上海: 上海海洋大学:17.
	ZHAO XU, 2022. Photosyntheitc physiology and ecological effects of macroalgae in Gouqi Island[D]. Shanghai: Shanghai Ocean University: 17 (in Chinese with English abstract).
[16]	赵旭, 王霄, 李训猛, 等, 2024. 天然海藻场中大型海藻有机碳含量及碳汇能力估算研究——以浙江枸杞岛潮下带为例[J]. 海洋湖沼通报, 46(03): 82-89.
	ZHAO XU, WANG XIAO, LI XUNMENG, et al, 2024. Estimation of organic carbon content and carbon sequestration capacity of macroalgae in natural seaweed field-Take subtidal zone of Gouqi Island, Zhejiang, as an example[J]. Transactions of Oceanology and Limnology, 46(3): 82-89 (in Chinese with English abstract). doi: 10.13984/j.cnki.cn37-1141.2024.03.010
[17]	AGUILERA J, FRANCISCO J, GORDILLO L, et al, 2000. Light quality effect on photosynthesis and efficiency of carbon assimilation in the red alga Porphyra leucosticta[J]. Journal of Plant Physiology, 157(1): 86-92.
[18]	ANASTASIOU C J, 2009. Characterization of the underwater light environment and its relevance to seagrass recovery and sustainability in Tampa Bay, Florida[D]. Tampa: University of South Florida:119.
[19]	ATKIN O K, TJOELKER M G, 2003. Thermal acclimation and the dynamic response of plant respiration to temperature[J]. Trends in Plant Science, 8(7): 343-351. doi: 10.1016/S1360-1385(03)00136-5 pmid: 12878019
[20]	BAROLI I, MELIS A, 1998. Photoinhibitory damage is modulated by the rate of photosynthesis and by the photosystem Ⅱ light-harvesting chlorophyll antenna size[J]. Planta, 205(2): 288-296.
[21]	BEER S, 2023. Photosynthetic traits of the ubiquitous and prolific macroalga Ulva (Chlorophyta): a review[J]. European Journal of Phycology, 58(4): 390-398.
[22]	BERTOCCI I, SEABRA M I, Dominguez R, et al, 2014. Effects of loss of algal canopies along temperature and irradiation gradients in continental Portugal and the Canary Islands[J]. Marine Ecology Progress Series, 506: 47-60.
[23]	BHAGOOLI R, MATTAN-MOORGAWA S, KAULLYSING D, et al, 2021. Chlorophyll fluorescence - a tool to assess photosynthetic performance and stress photophysiology in symbiotic marine invertebrates and seaplants[J]. Marine pollution bulletin, 165: 112059.
[24]	BORLONGAN I A, SUZUKI S, NISHIHARA G N, et al, 2020. Effects of light quality and temperature on the photosynthesis and pigment content of a subtidal edible red alga Meristotheca papulosa (Solieriaceae, Gigartinales) from Japan[J]. Journal of applied phycology, 32(2): 1329-1340.
[25]	CHENG XIAOPENG, ZHAO XU, LIN JUN, et al, 2024. Rotation culture of macroalgae based on photosynthetic physiological characteristics of algae[J]. Biology, 13(6): 459.
[26]	DAVISON I R, 1991. Environmental effects on algal photosynthesis: temperature[J]. Journal of phycology, 27(1): 2-8.
[27]	DES M, MARTÍNEZ B, DECASTRO M, et al, 2020. The impact of climate change on the geographical distribution of habitat-forming macroalgae in the Rías Baixas[J]. Marine environmental research, 161: 105074.
[28]	DOMÍNGUEZ-MARTÍN M A, SAUER P V, KIRST H, et al, 2022. Structures of a phycobilisome in light-harvesting and photoprotected states[J]. Nature, 609(7928): 835-845.
[29]	ENDO H, MORIYAMA H, OKUMURA Y, 2023. Photoinhibition and photoprotective responses of a brown marine macroalga acclimated to different light and nutrient regimes[J]. Antioxidants, 12(2): 357.
[30]	FIGUEROA F L, DOMÍNGUEZ-GONZÁLEZ B, KORBEE N, 2014. Vulnerability and acclimation to increased UVB radiation in three intertidal macroalgae of different morpho-functional groups[J]. Marine Environmental Research, 97: 30-38. doi: 10.1016/j.marenvres.2014.01.009 pmid: 24556033
[31]	FIRTH L B, SCHOFIELD M, WHITE F J, et al, 2014. Biodiversity in intertidal rock pools: informing engineering criteria for artificial habitat enhancement in the built environment[J]. Marine Environmental Research, 102: 122-130 doi: 10.1016/j.marenvres.2014.03.016 pmid: 24746927
[32]	FORSTER R M, DRING M J, 1994. Influence of blue light on the photosynthetic capacity of marine plants from different taxonomic, ecological and morphological groups[J]. European Journal of Phycology, 29(1): 21-27.
[33]	FRÖLICHER T L, FISCHER E M, GRUBER N, 2018. Marine heatwaves under global warming[J]. Nature, 560(7718): 360-364.
[34]	GAO KUNSHAN, HUTCHINS D A, BEARDALL J, 2021. Research methods of environmental physiology in aquatic sciences[M]. Singapore: Springer:208.
[35]	GOSS R, JAKOB T, 2010. Regulation and function of xanthophyll cycle-dependent photoprotection in algae[J]. Photosynthesis Research, 106(1-2): 103-122. doi: 10.1007/s11120-010-9536-x pmid: 20224940
[36]	GRABA-LANDRY A, HOEY A S, MATLEY J K, et al, 2018. Ocean warming has greater and more consistent negative effects than ocean acidification on the growth and health of subtropical macroalgae[J]. Marine Ecology Progress Series, 595: 55-69.
[37]	HÄDER D P, LEBERT M, SINHA R P, et al, 2002. Role of protective and repair mechanisms in the inhibition of photosynthesis in marine macroalgae[J]. Photochemical & Photobiological Sciences, 1(10): 809-814.
[38]	HANELT D, 1998. Capability of dynamic photoinhibition in Arctic macroalgae is related to their depth distribution[J]. Marine Biology, 131(2): 361-369.
[39]	HENLEY W J, 1993. Measurement and interpretation of photosynthetic light - response curves in algae in the context of photoinhibition and diel changes[J]. Journal of Phycology, 29(6): 729-739.
[40]	IÑIGUEZ C, GALMÉS J, GORDILLO F J L, 2019. Rubisco carboxylation kinetics and inorganic carbon utilization in polar versus cold-temperate seaweeds[J]. Journal of Experimental Botany, 70(4): 1283-1297. doi: 10.1093/jxb/ery443 pmid: 30576461
[41]	KIM J K, MAO YUNXIANG, KRAEMER G, et al, 2015. Growth and pigment content of Gracilaria tikvahiae McLachlan under fluorescent and LED lighting[J]. Aquaculture, 436: 52-57.
[42]	KOK B, 1956. On the inhibition of photosynthesis by intense light[J]. Biochimica et Biophysica Acta, 21(2): 234-244. pmid: 13363902
[43]	KORBEE N, FIGUEROA F L, AGUILERA J, 2005. Effect of light quality on the accumulation of photosynthetic pigments, proteins and mycosporine-like amino acids in the red alga Porphyra leucosticta (Bangiales, Rhodophyta)[J]. Journal of Photochemistry and Photobiology B: Biology, 80(2): 71-78.
[44]	LI GANG, QIN ZHEN, ZHANG JIEJUN, et al, 2020. Algal density mediates the photosynthetic responses of a marine macroalga Ulva conglobata (Chlorophyta) to temperature and pH changes[J]. Algal Research, 46: 101797.
[45]	LI XUEMENG, ZHANG QUANSHENG, TANG YONGZHENG, et al, 2014. Highly efficient photoprotective responses to high light stress in Sargassum thunbergii germlings, a representative brown macroalga of intertidal zone[J]. Journal of Sea Research, 85: 491-498.
[46]	LI XUNMENG, ZHAO XU, YUAN HUARONG, et al, 2022. Diversity and carbon sequestration of seaweed in the Ma’an Archipelago, China[J]. Diversity, 15(1): 12.
[47]	LITTLER M M, LITTLER D S, HANISAK M D, 1991. Deep-water rhodolith distribution, productivity, and growth history at sites of formation and subsequent degradation[J]. Journal of Experimental Marine Biology and Ecology, 150(2): 163-182.
[48]	NAN GUONING, ZHOU XIAOQUN, ZHANG XIUMEI, et al, 2022. Xanthophyll cycle-related non-photochemical quenching protects Sargassum thunbergii from high light-induced photoinhibition[J]. Frontiers in Marine Science, 9: 1067596.
[49]	NECCHI O, 2004. Photosynthetic responses to temperature in tropical lotic macroalgae[J]. Phycological Research, 52(2): 140-148.
[50]	RALPH P J, GADEMANN R, 2005. Rapid light curves: a powerful tool to assess photosynthetic activity[J]. Aquatic botany, 82(3): 222-237.
[51]	RAUTENBERGER R, HUOVINEN P, GÓMEZ I, 2015. Effects of increased seawater temperature on UV tolerance of Antarctic marine macroalgae[J]. Marine Biology, 162(5): 1087-1097.
[52]	ROMÁN M, ROMÁN S, VÁZQUEZ E, et al, 2020. Heatwaves during low tide are critical for the physiological performance of intertidal macroalgae under global warming scenarios[J]. Scientific Reports, 10(1): 21408. doi: 10.1038/s41598-020-78526-5 pmid: 33293562
[53]	RUBAN A V, 2016. Nonphotochemical chlorophyll fluorescence quenching: mechanism and effectiveness in protecting plants from photodamage[J]. Plant Physiology, 170(4): 1903-1916. doi: 10.1104/pp.15.01935 pmid: 26864015
[54]	SCHWARZ A M, MARKAGER S, 1999. Light absorption and photosynthesis of a benthic moss community: importance of spectral quality of light and implications of changing light attenuation in the water column[J]. Freshwater Biology, 42(4): 609-623.
[55]	SHI XIAOHAN, ZOU DINGHUI, HU SHANSHAN, et al, 2021. Photosynthetic characteristics of three cohabitated macroalgae in the Daya Bay, and their responses to temperature rises[J]. Plants, 10(11): 2441.
[56]	SHINDO A, BORLONGAN I A, NISHIHARA G N, et al, 2022. Interactive effects of temperature and irradiance including spectral light quality on the photosynthesis of a brown alga Saccharina japonica (Laminariales) from Hokkaido, Japan[J]. Algal Research, 66: 102777.
[57]	TAKAHASHI S, BADGER M R, 2011. Photoprotection in plants: a new light on photosystem Ⅱ damage[J]. Trends in plant science, 16(1): 53-60.
[58]	THOMSEN M S, MONDARDINI L, ALESTRA T, et al, 2019. Local extinction of bull kelp (Durvillaea spp. ) due to a marine heatwave[J]. Frontiers in Marine Science, 6: 84.
[59]	THORAL F, PINKERTON M H, TAIT L W, et al, 2023. Spectral light quality on the seabed matters for macroalgal community composition at the extremities of light limitation[J]. Limnology and Oceanography, 68(4): 902-916.
[60]	WAN MINGYUE, WANG ZHIQIN, MAI GUANGMING, et al, 2022. Photosynthetic characteristics of macroalgae Ulva fasciata and Sargassum thunbergii in the Daya Bay of the South China Sea, with special reference to the effects of light quality[J]. Sustainability, 14(13): 8063.
[61]	WANG KAI, TAO XIANG, ZHANG SHOUYU, et al, 2024. Effects of ocean acidification and temperature coupling on photosynthetic activity and physiological properties of Ulva fasciata and Sargassum horneri[J]. Biology, 13(8): 640.
[62]	WIENCKE C, BISCHOF K, 2012. Seaweed biology: novel insights into ecophysiology, ecology and utilization[M]. Berlin, Heidelberg: Springer: 4-17.
[63]	WU HAILONG, FENG JINGCHI, LI XINSHU, et al, 2019. Effects of increased CO₂ and temperature on the physiological characteristics of the golden tide blooming macroalgae Sargassum horneri in the Yellow Sea, China[J]. Marine Pollution Bulletin, 146: 639-644.
[64]	ZOU DINGHUI, GAO KUNSHAN, 2010. Photosynthetic acclimation to different light levels in the brown marine macroalga, Hizikia fusiformis (Sargassaceae, Phaeophyta)[J]. Journal of Applied Phycology, 22(4): 395-404.

参数	温度/℃	孔石莼	舌状蜈蚣藻	鼠尾藻	羊栖菜
F_v/F_m	25	0.73±0.01^b	0.55±0.04^b	0.71±0.01^c	0.67±0.03^b
	20	0.75±0.01^a	0.55±0.02^b	0.72±0.01^b	0.66±0.01^b
	15	0.76±0.01^a	0.60±0.02^a	0.74±0.01^a	0.72±0.02^a
rETR_max/(μmol electron·m^-2·s^-1)	25	46.48±1.93^b	22.21 ± 1.14^a	99.04±2.69^a	66.82±1.53^a
	20	53.82±5.20^a	19.93 ± 1.07^b	85.4±3.25^b	59.64±2.29^b
	15	49.74±1.57^ab	13.98 ± 0.25^c	82.4±1.24^c	59.02±1.33^b
α	25	0.38±0.02^a	0.32 ± 0.02^b	0.34±0.00^b	0.33±0.01^b
	20	0.31±0.00^b	0.34 ± 0.03^a	0.38±0.01^a	0.38±0.01^a
	15	0.38±0.01^a	0.28 ± 0.01^c	0.32±0.00^c	0.30±0.00^c
E_k/(μmol photons·m^-2·s^-1)	25	122.7±8.91^b	69.12±7.36^a	305.85±11.33^a	199.7±6.92^a
	20	172.24±17.47^a	59.05±6.76^a	222.79±12.52^c	158.8±9.86^b
	15	132.73±7.13^b	49.17±1.90^b	245.46±5.31^b	196.67±6.76^a

参数	光质	U. pertusa	G. livida	S. thunbergii	S. fusiforme
P_max/(μmol O₂·g^-1FW·h^-1)	白	250.28±14.77^a	53.89±2.93^a	63.09±4.26^a	32.05±1.28^a
	红	261.64±17.98^a	52.59±2.71^ab	65.87±2.31^a	33.34±1.34^a
	绿	279.00±19.68^a	52.70±3.28^ab	60.71±2.70^a	33.44±1.42^a
	蓝	161.55±8.92^b	46.16±2.64^b	52.49±2.56^b	28.35±1.56^b
α_(P)/[(μmol O₂·g^-1FW·h^-1)/(μmol photons m^-2·s^-1)]	白	5.09±1.02^a	0.99±0.18^a	2.09±0.39^a	1.00±0.16^a
	红	2.64±0.48^b	1.59±0.33^a	1.28±0.15^b	0.56±0.07^b
	绿	2.31±0.40^b	1.55±0.38^a	1.22±0.18^b	0.42±.051^b
	蓝	3.45±0.66^ab	0.96±0.19^a	1.41±0.26^ab	0.52±0.09^b
R_d/(μmol O₂·g^-1FW·h^-1)	—	-24.19±2.00	-3.38±0.46	-12.20±3.85	-4.31±1.16
E_k/(μmol photons m^-2·s^-1)	白	49.21±11.23^b	54.59±11.11^a	30.22±5.05^b	32.06±5.73^b
	红	98.95±21.49^a	33.13±7.56^a	51.65±6.90^a	59.79±8.78^a
	绿	120.90±25.50^a	33.96±9.26^a	49.88±8.53^a	79.03±11.26^a
	蓝	46.84±10.15^b	48.29±10.76^a	37.19±7.71^ab	54.46±11.26^ab
E_c/(μmol photons m^-2·s^-1)	白	5.00±1.00^b	3.53±0.62^a	6.49±1.66^b	4.63±0.74^b
	红	9.60±1.71^a	2.20±0.45^a	10.75±1.24^a	8.28±1.05^a
	绿	10.96±1.85^a	2.25±0.55^a	11.37±1.69^a	10.91±1.30^a
	蓝	7.60±1.44^ab	3.67±0.72^a	10.00±1.83^ab	8.99±1.61^a

Response of photosynthetic activity to temperature rise and light quality of four intertidal macroalgae from Lühua Island, Zhejiang, China

RichHTML

PDF (PC)

Like

Knowledge

Abstract

Cite this article

share this article

Figures/Tables 9

References 64

Related Articles 11

Metrics

Comments

Recommended 0

[1]	ZENG Zhaojun, SUN Liwei, XIE Enyi. Study on the annual growth and early development of sexual reproduction of Sargassum wightii [J]. Journal of Tropical Oceanography, 2025, 44(1): 44-52.
[2]	JIANG Zhijian, Chanaka Isuranga PREMARATHNE, FANG Yang, LIN Jizhen, WU Yunchao, LIU Songlin, HUANG Xiaoping. Effects of ammonium enrichment on the photosynthesis, glutamine synthetase and amino acid composition of seagrass Halophila beccarii Asch [J]. Journal of Tropical Oceanography, 2023, 42(3): 116-125.
[3]	SHI Xiaohan, ZOU Dinghui, HE Quan, LI Gang. Photophysiological characteristics of the branch and stolon of macroalga Caulerpa lentillifera (Caulerpaceae, Caulerpa) under different growth light conditions, and their responses to temperature rise [J]. Journal of Tropical Oceanography, 2022, 41(5): 150-160.
[4]	SONG Jiacheng, QI Hongshuai, ZHANG Chi, CAI Feng, YIN Hang. Analysis of energy dissipation process of wave propagation in beach foreshore under the influence of tide [J]. Journal of Tropical Oceanography, 2022, 41(4): 146-153.
[5]	LI Gang, WAN Mingyue, SHI Xiaohan, QIN Geng, MAI Guangming, HUANG Liangmin, TAN Yehui, ZOU Dinghui. Comparative study on photophysiology of four macroalgae from the Zhongsha Atoll, with special reference to the effects of temperature rise^* [J]. Journal of Tropical Oceanography, 2022, 41(3): 101-110.
[6]	MENG Miaomiao, ZHENG Xiangyang, XING Qianguo, LIU Hailong. Remote sensing estimation of green macroalgae Ulva pertusa based on unmanned aerial vehicle and satellite image [J]. Journal of Tropical Oceanography, 2022, 41(3): 46-53.
[7]	DAI Xiaojuan, HU Ren, LUO Hongtian, WANG Qing, HU Xiaojuan, BAI Mindong, YANG Yufeng. Effects of the decomposition of Gracilaria lemaneiformis on seawater quality [J]. Journal of Tropical Oceanography, 2021, 40(1): 91-98.
[8]	ZHANG Caixue, ZHOU Weinan, SUN Xingli, SONG Zhiguang. Seasonal succession of macroalgae community in Naozhou Island [J]. Journal of Tropical Oceanography, 2020, 39(1): 74-84.
[9]	Hui WANG,Hengxiang LI,Lu LI,Yan YAN. The population distribution of Hyale grandicornis in macroalgae canopies of Daya Bay [J]. Journal of Tropical Oceanography, 2019, 38(4): 52-58.
[10]	WU Zhen, ZHANG Hua, CEN Jingyi, LI Li, CHAO Aimin, LÜ Songhui. Effects of temperature on the growth and carbohydrate production of Gambierdiscus pacificus [J]. Journal of Tropical Oceanography, 2016, 35(5): 55-61.
[11]	DENG Li,CHEN Da-wei,LI Yun,LUO Xue-feng,QIU Hong-mei. Organotin contamination in seawater and marine animals along intertidal zone at Dapeng Bay and Daya Bay of Shenzhen, China [J]. Journal of Tropical Oceanography, 2010, 29(4): 112-117.