Acta Horticulturae Sinica ›› 2023, Vol. 50 ›› Issue (5): 959-971.doi: 10.16420/j.issn.0513-353x.2022-0190
• Genetic & Breeding·Germplasm Resources·Molecular Biology • Previous Articles Next Articles
ZHOU Ping, GUO Rui, YAN Shaobin, JIN Guang()
Received:
2022-11-03
Revised:
2023-04-27
Online:
2023-05-25
Published:
2023-05-31
Contact:
JIN Guang
E-mail:jinguang0591@163.com
CLC Number:
ZHOU Ping, GUO Rui, YAN Shaobin, JIN Guang. Molecular Mechanism Study of Exogenous Sorbitol Effects on Sugar Metabolism in Peach Leaves and Fruits[J]. Acta Horticulturae Sinica, 2023, 50(5): 959-971.
Add to citation manager EndNote|Ris|BibTeX
URL: https://www.ahs.ac.cn/EN/10.16420/j.issn.0513-353x.2022-0190
Fig. 1 Changes of sugar contents and sugar composition ratios in peach leaves and fruits with sorbitol treatments * represents a significant difference between treatment and control group(Student t-test,α = 0.05).
糖代谢酶 Sugar-metabolizing enzymes | 基因 Gene | 基因编号 Gene ID | 同源基因编号 Homologous gene ID | 同源基因 Homologous gene | 相似度/% Similarity |
---|---|---|---|---|---|
山梨醇脱氢酶(SDH) | PpSDHa | Prupe.1G057900 | AT5G51970 | AtSDH | 60 |
Sorbitol dehydrogenase | PpSDHb | Prupe.2G288800 | AT5G51970 | AtSDH | 81 |
PpSDHc | Prupe.4G240300 | AT5G51970 | AtSDH | 78 | |
PpSDHd | Prupe.8G142900 | AT5G51970 | AtSDH | 78 | |
PpSDHe | Prupe.8G143000 | AT5G51970 | AtSDH | 78 | |
6-磷酸山梨醇脱氢酶(S6PDH) | PpS6PDHa | Prupe.8G083400 | AAV54113 | MdS6PDH | 76 |
Sorbitol-6-phosphate dehydrogenase | PpS6PDHb | Prupe.2G061100 | AAV54113 | MdS6PDH | 69 |
蔗糖合酶(SUS) | PpSUSa | Prupe.1G131700 | AT5G49190 | AtSUS2 | 82 |
Sucrose Synthase | PpSUSb | Prupe.8G264300 | AT4G02280 | AtSUS3 | 84 |
PpSUSc | Prupe.7G192300 | AT3G43190 | AtSUS4 | 82 | |
PpSUSd | Prupe.3G014100 | AT5G37180 | AtSUS5 | 73 | |
PpSUSe | Prupe.5G241700 | AT1G73370 | AtSUS6 | 75 | |
蔗糖磷酸合成酶(SPS) | PpSPSa | Prupe.1G159700 | AT1G04920 | AtSPS3F | 77 |
Sucrose phosphate synthase | PpSPSb | Prupe.1G483200 | AT5G11110 | AtSPS2F | 72 |
PpSPSc | Prupe.7G249900 | AT5G20280 | AtSPS1F | 78 | |
PpSPSd | Prupe.8G003700 | AT4G10120 | AtSPS4F | 70 | |
蔗糖磷酸酯酶(SPP) | PpSPPa | Prupe.5G001900 | AT1G51420 | AtSPP1 | 60 |
Sucrose phosphate phosphatase | PpSPPb | Prupe.7G089300 | AT3G52340 | AtSPP2 | 62 |
转化酶(INV) | PpINVa | Prupe.6G309800 | AT1G56560 | A/N-InvA | 74 |
Invertase | PpINVb | Prupe.1G365400 | AT4G34860 | A/N-InvB | 78 |
PpINVc | Prupe.6G229900 | AT4G34860 | A/N-InvB | 58 | |
PpINVd | Prupe.2G075000 | AT4G34860 | A/N-InvB | 84 | |
PpINVe | Prupe.1G111800 | AT3G06500 | A/N-InvC | 67 | |
PpINVf | Prupe.8G159800 | AT1G22650 | A/N-InvD | 78 | |
PpINVg | Prupe.2G083900 | AT5G22510 | A/N-InvE | 70 | |
PpINVh | Prupe.6G122600 | AT5G22510 | A/N-InvE | 71 | |
磷酸果糖激酶(PFK) | PpPFKa | Prupe.1G444000 | AT4G32840 | AtPFK6 | 82 |
Phosphofructokinase | PpPFKb | Prupe.3G056600 | AT4G26270 | AtPFK3 | 83 |
PpPFKc | Prupe.7G216700 | AT4G29220 | AtPFK1 | 82 | |
PpPFKd | Prupe.2G272600 | AT5G61580 | AtPFK4 | 79 | |
PpPFKe | Prupe.6G196200 | AT2G22480 | AtPFK5 | 83 | |
PpPFKf | Prupe.4G002000 | AT5G47810 | AtPFK2 | 78 | |
己糖激酶(HXK) | PpHXKa | Prupe.3G057800 | AT4G29130 | AtHXK1 | 73 |
Hexokinase | PpHXKb | Prupe.7G218800 | AT2G19860 | AtHXK2 | 78 |
PpHXKc | Prupe.1G366000 | AT1G47840 | AtHXK3 | 68 | |
PpHKLa | Prupe.4G256200 | AT1G50460 | AtHKL1 | 68 | |
PpHKLb | Prupe.6G212100 | AT4G37840 | AtHKL3 | 60 | |
磷酸葡萄糖异构酶(PGI) | PpPGI | Prupe.1G528400 | AT4G24620 | AtPGI1 | 81 |
Phosphoglucose isomerase |
Table 1 Thirty-eight peach sugar-metabolizing enzyme genes
糖代谢酶 Sugar-metabolizing enzymes | 基因 Gene | 基因编号 Gene ID | 同源基因编号 Homologous gene ID | 同源基因 Homologous gene | 相似度/% Similarity |
---|---|---|---|---|---|
山梨醇脱氢酶(SDH) | PpSDHa | Prupe.1G057900 | AT5G51970 | AtSDH | 60 |
Sorbitol dehydrogenase | PpSDHb | Prupe.2G288800 | AT5G51970 | AtSDH | 81 |
PpSDHc | Prupe.4G240300 | AT5G51970 | AtSDH | 78 | |
PpSDHd | Prupe.8G142900 | AT5G51970 | AtSDH | 78 | |
PpSDHe | Prupe.8G143000 | AT5G51970 | AtSDH | 78 | |
6-磷酸山梨醇脱氢酶(S6PDH) | PpS6PDHa | Prupe.8G083400 | AAV54113 | MdS6PDH | 76 |
Sorbitol-6-phosphate dehydrogenase | PpS6PDHb | Prupe.2G061100 | AAV54113 | MdS6PDH | 69 |
蔗糖合酶(SUS) | PpSUSa | Prupe.1G131700 | AT5G49190 | AtSUS2 | 82 |
Sucrose Synthase | PpSUSb | Prupe.8G264300 | AT4G02280 | AtSUS3 | 84 |
PpSUSc | Prupe.7G192300 | AT3G43190 | AtSUS4 | 82 | |
PpSUSd | Prupe.3G014100 | AT5G37180 | AtSUS5 | 73 | |
PpSUSe | Prupe.5G241700 | AT1G73370 | AtSUS6 | 75 | |
蔗糖磷酸合成酶(SPS) | PpSPSa | Prupe.1G159700 | AT1G04920 | AtSPS3F | 77 |
Sucrose phosphate synthase | PpSPSb | Prupe.1G483200 | AT5G11110 | AtSPS2F | 72 |
PpSPSc | Prupe.7G249900 | AT5G20280 | AtSPS1F | 78 | |
PpSPSd | Prupe.8G003700 | AT4G10120 | AtSPS4F | 70 | |
蔗糖磷酸酯酶(SPP) | PpSPPa | Prupe.5G001900 | AT1G51420 | AtSPP1 | 60 |
Sucrose phosphate phosphatase | PpSPPb | Prupe.7G089300 | AT3G52340 | AtSPP2 | 62 |
转化酶(INV) | PpINVa | Prupe.6G309800 | AT1G56560 | A/N-InvA | 74 |
Invertase | PpINVb | Prupe.1G365400 | AT4G34860 | A/N-InvB | 78 |
PpINVc | Prupe.6G229900 | AT4G34860 | A/N-InvB | 58 | |
PpINVd | Prupe.2G075000 | AT4G34860 | A/N-InvB | 84 | |
PpINVe | Prupe.1G111800 | AT3G06500 | A/N-InvC | 67 | |
PpINVf | Prupe.8G159800 | AT1G22650 | A/N-InvD | 78 | |
PpINVg | Prupe.2G083900 | AT5G22510 | A/N-InvE | 70 | |
PpINVh | Prupe.6G122600 | AT5G22510 | A/N-InvE | 71 | |
磷酸果糖激酶(PFK) | PpPFKa | Prupe.1G444000 | AT4G32840 | AtPFK6 | 82 |
Phosphofructokinase | PpPFKb | Prupe.3G056600 | AT4G26270 | AtPFK3 | 83 |
PpPFKc | Prupe.7G216700 | AT4G29220 | AtPFK1 | 82 | |
PpPFKd | Prupe.2G272600 | AT5G61580 | AtPFK4 | 79 | |
PpPFKe | Prupe.6G196200 | AT2G22480 | AtPFK5 | 83 | |
PpPFKf | Prupe.4G002000 | AT5G47810 | AtPFK2 | 78 | |
己糖激酶(HXK) | PpHXKa | Prupe.3G057800 | AT4G29130 | AtHXK1 | 73 |
Hexokinase | PpHXKb | Prupe.7G218800 | AT2G19860 | AtHXK2 | 78 |
PpHXKc | Prupe.1G366000 | AT1G47840 | AtHXK3 | 68 | |
PpHKLa | Prupe.4G256200 | AT1G50460 | AtHKL1 | 68 | |
PpHKLb | Prupe.6G212100 | AT4G37840 | AtHKL3 | 60 | |
磷酸葡萄糖异构酶(PGI) | PpPGI | Prupe.1G528400 | AT4G24620 | AtPGI1 | 81 |
Phosphoglucose isomerase |
糖转运子 Sugar transporter | 基因 Gene | 基因编号 Gene ID | 同源基因编号 Homologous gene ID | 同源基因 Homologous gene | 相似度/% Similarity |
---|---|---|---|---|---|
山梨醇转运蛋白(SOT) | PpSOTa | Prupe.8G100700 | AAO088965 | MdSOT2 | 80 |
Sorbitol transporter | PpSOTb | Prupe.8G100900 | AAO088965 | MdSOT2 | 80 |
PpSOTc | Prupe.8G101000 | AAO088965 | MdSOT2 | 80 | |
PpSOTd | Prupe.8G101200 | AAO088964 | MdSOT1 | 78 | |
PpSOTe | Prupe.8G105300 | BAD42344 | MdSOT4 | 70 | |
PpSOTf | Prupe.8G105400 | BAD42344 | MdSOT4 | 70 | |
PpSOTg | Prupe.8G105500 | BAD42344 | MdSOT4 | 70 | |
PpSOTh | Prupe.8G105600 | BAD42344 | MdSOT4 | 70 | |
PpSOTi | Prupe.8G101500 | BAD42343 | MdSOT3 | 72 | |
蔗糖转运蛋白(SUT) | PpSUTa | Prupe.1G271500 | AT2G02860 | AtSUT2 | 72 |
Sucrose transporter | PpSUTb | Prupe.1G542000 | AT1G09960 | AtSUT4 | 73 |
PpSUTc | Prupe.8G052700 | AT1G22710 | AtSUT1 | 68 | |
液泡膜单糖转运蛋白(TMT) | PpTMTa | Prupe.5G006300 | AT4G35300 | AtTMT2 | 70 |
Tonoplast monosaccharide transporter | PpTMTb | Prupe.7G186000 | AT3G51490 | AtTMT3 | 64 |
多元醇/单糖转运蛋白(PMT) | PpPMTa | Prupe.8G105300 | AT3G18830 | AtPMT5 | 69 |
Polyol/Monosaccharide transporter | PpPMTb | Prupe.8G105400 | AT3G18830 | AtPMT5 | 69 |
PpPMTc | Prupe.8G105500 | AT3G18830 | AtPMT5 | 69 | |
PpPMTd | Prupe.8G105600 | AT3G18830 | AtPMT5 | 69 | |
PpPMTe | Prupe.8G101200 | AT4G36670 | AtPMT6 | 71 | |
PpPMTf | Prupe.7G152100 | AT3G18830 | AtPMT5 | 69 | |
糖转运蛋白(STP) | PpSTPa | Prupe.4G037800 | AT1G11260 | AtSTP1 | 83 |
Sugar transporter protein | PpSTPb | Prupe.1G070800 | AT3G19940 | AtSTP10 | 69 |
PpSTPc | Prupe.1G070900 | AT1G50310 | AtSTP9 | 69 | |
PpSTPd | Prupe.1G156300 | AT5G26340 | AtSTP13 | 84 | |
SWEET蛋白(SWEET) | PpSWEET1 | Prupe.6G355900 | AT2G39060 | AtSWEET9 | 62 |
Sugar will eventually be | PpSWEET2 | Prupe.1G220700 | AT5G13170 | AtSWEET15 | 63 |
exported transporter | PpSWEET3 | Prupe.8G253500 | AT2G39060 | AtSWEET9 | 55 |
(余彩云 等, | PpSWEET4 | Prupe.1G133300 | AT4G15920 | AtSWEET17 | 62 |
PpSWEET5 | Prupe.5G146500 | AT5G50790 | AtSWEET10 | 55 | |
PpSWEET6 | Prupe.3G283400 | AT5G62850 | AtSWEET5 | 56 | |
PpSWEET7 | Prupe.8G076100 | AT5G62850 | AtSWEET5 | 69 | |
PpSWEET8 | Prupe.3G034900 | AT5G62850 | AtSWEET5 | 68 | |
PpSWEET9 | Prupe.5G125100 | AT4G10850 | AtSWEET7 | 54 | |
PpSWEET10 | Prupe.8G017400 | AT1G21460 | AtSWEET1 | 64 | |
PpSWEET11 | Prupe.5G146400 | AT5G23660 | AtSWEET12 | 56 | |
PpSWEET12 | Prupe.4G155700 | AT3G14770 | AtSWEET2 | 66 | |
PpSWEET13 | Prupe.4G072300 | AT3G14770 | AtSWEET2 | 64 | |
PpSWEET14 | Prupe.2G118600 | AT4G15920 | AtSWEET17 | 50 | |
PpSWEET15 | Prupe.5G175500 | AT5G62850 | AtSWEET5 | 64 | |
PpSWEET16 | Prupe.2G245600 | AT2G39060 | AtSWEET9 | 55 | |
PpSWEET17 | Prupe.2G307800 | AT5G53190 | AtSWEET3 | 50 |
Table 2 Forty-one peach sugar transporter genes
糖转运子 Sugar transporter | 基因 Gene | 基因编号 Gene ID | 同源基因编号 Homologous gene ID | 同源基因 Homologous gene | 相似度/% Similarity |
---|---|---|---|---|---|
山梨醇转运蛋白(SOT) | PpSOTa | Prupe.8G100700 | AAO088965 | MdSOT2 | 80 |
Sorbitol transporter | PpSOTb | Prupe.8G100900 | AAO088965 | MdSOT2 | 80 |
PpSOTc | Prupe.8G101000 | AAO088965 | MdSOT2 | 80 | |
PpSOTd | Prupe.8G101200 | AAO088964 | MdSOT1 | 78 | |
PpSOTe | Prupe.8G105300 | BAD42344 | MdSOT4 | 70 | |
PpSOTf | Prupe.8G105400 | BAD42344 | MdSOT4 | 70 | |
PpSOTg | Prupe.8G105500 | BAD42344 | MdSOT4 | 70 | |
PpSOTh | Prupe.8G105600 | BAD42344 | MdSOT4 | 70 | |
PpSOTi | Prupe.8G101500 | BAD42343 | MdSOT3 | 72 | |
蔗糖转运蛋白(SUT) | PpSUTa | Prupe.1G271500 | AT2G02860 | AtSUT2 | 72 |
Sucrose transporter | PpSUTb | Prupe.1G542000 | AT1G09960 | AtSUT4 | 73 |
PpSUTc | Prupe.8G052700 | AT1G22710 | AtSUT1 | 68 | |
液泡膜单糖转运蛋白(TMT) | PpTMTa | Prupe.5G006300 | AT4G35300 | AtTMT2 | 70 |
Tonoplast monosaccharide transporter | PpTMTb | Prupe.7G186000 | AT3G51490 | AtTMT3 | 64 |
多元醇/单糖转运蛋白(PMT) | PpPMTa | Prupe.8G105300 | AT3G18830 | AtPMT5 | 69 |
Polyol/Monosaccharide transporter | PpPMTb | Prupe.8G105400 | AT3G18830 | AtPMT5 | 69 |
PpPMTc | Prupe.8G105500 | AT3G18830 | AtPMT5 | 69 | |
PpPMTd | Prupe.8G105600 | AT3G18830 | AtPMT5 | 69 | |
PpPMTe | Prupe.8G101200 | AT4G36670 | AtPMT6 | 71 | |
PpPMTf | Prupe.7G152100 | AT3G18830 | AtPMT5 | 69 | |
糖转运蛋白(STP) | PpSTPa | Prupe.4G037800 | AT1G11260 | AtSTP1 | 83 |
Sugar transporter protein | PpSTPb | Prupe.1G070800 | AT3G19940 | AtSTP10 | 69 |
PpSTPc | Prupe.1G070900 | AT1G50310 | AtSTP9 | 69 | |
PpSTPd | Prupe.1G156300 | AT5G26340 | AtSTP13 | 84 | |
SWEET蛋白(SWEET) | PpSWEET1 | Prupe.6G355900 | AT2G39060 | AtSWEET9 | 62 |
Sugar will eventually be | PpSWEET2 | Prupe.1G220700 | AT5G13170 | AtSWEET15 | 63 |
exported transporter | PpSWEET3 | Prupe.8G253500 | AT2G39060 | AtSWEET9 | 55 |
(余彩云 等, | PpSWEET4 | Prupe.1G133300 | AT4G15920 | AtSWEET17 | 62 |
PpSWEET5 | Prupe.5G146500 | AT5G50790 | AtSWEET10 | 55 | |
PpSWEET6 | Prupe.3G283400 | AT5G62850 | AtSWEET5 | 56 | |
PpSWEET7 | Prupe.8G076100 | AT5G62850 | AtSWEET5 | 69 | |
PpSWEET8 | Prupe.3G034900 | AT5G62850 | AtSWEET5 | 68 | |
PpSWEET9 | Prupe.5G125100 | AT4G10850 | AtSWEET7 | 54 | |
PpSWEET10 | Prupe.8G017400 | AT1G21460 | AtSWEET1 | 64 | |
PpSWEET11 | Prupe.5G146400 | AT5G23660 | AtSWEET12 | 56 | |
PpSWEET12 | Prupe.4G155700 | AT3G14770 | AtSWEET2 | 66 | |
PpSWEET13 | Prupe.4G072300 | AT3G14770 | AtSWEET2 | 64 | |
PpSWEET14 | Prupe.2G118600 | AT4G15920 | AtSWEET17 | 50 | |
PpSWEET15 | Prupe.5G175500 | AT5G62850 | AtSWEET5 | 64 | |
PpSWEET16 | Prupe.2G245600 | AT2G39060 | AtSWEET9 | 55 | |
PpSWEET17 | Prupe.2G307800 | AT5G53190 | AtSWEET3 | 50 |
Fig. 2 Sugar-metabolizing genes expression changes caused by exogenous sorbitol treatments A:Leaves of control group;B:Leaves of sorbitol treatment group;C:Fruit flesh of control group;D:Fruit flesh of sorbitol treatment group. UDPG:Uridine-5'-diphosphoglucose;G-6-P:Glucose-6-phosphate;F-6-P:Fructose -6-phosphate. Sugar-metabolizing enzymes and their genes abbreviated as Table 1 showed. * represent the significant differences between treatment and control groups. Arrow-up or arrow-down tags indicate that corresponding genes were significantly upregulated or downregulated. The same below.
Fig. 4 Canonical correlation analyses of datas between sugar contents and gene expression in sugar-metabolism(a)and sugar-transport(b)processes In this diagram,dashed-line arrows designate the significance of permutation tests for constrained ordination model P > 0.05,while other line arrows indicate the significance P < 0.05. A:Leaves of control group;B:Leaves of sorbitol treatment group;C:Fruit flesh of control group;D:Fruit flesh of sorbitol treatment group.
[1] |
Almaghamsi A, Nosarzewski M, Kanayama Y, Archbold D D. 2021. Effects of abiotic stresses on sorbitol biosynthesis and metabolism in tomato(Solanum lycopersicum). Functional Plant Biology, 48 (3):286-297.
doi: 10.1071/FP20065 pmid: 33099326 |
[2] |
Bu D, Luo H, Huo P, Wang Z, Zhang S, He Z, Wu Y, Zhao L, Liu J, Guo J, Fang S, Cao W, Yi L, Zhao Y, Kong L. 2021. KOBAS-i:intelligent prioritization and exploratory visualization of biological functions for gene enrichment analysis. Nucleic Acids Research, 49 (W1):W317-W325.
doi: 10.1093/nar/gkab447 URL |
[3] |
Cao K, Li Y, Deng C H, Gardiner S E, Zhu G, Fang W, Chen C, Wang X, Wang L. 2019. Comparative population genomics identified genomic regions and candidate genes associated with fruit domestication traits in peach. Plant Biotechnology Journal, 17 (10):1954-1970.
doi: 10.1111/pbi.13112 pmid: 30950186 |
[4] |
Cao K, Yang X, Li Y, Zhu G, Fang W, Chen C, Wang X, Wu J, Wang L. 2021. New high-quality peach(Prunus persica L. Batsch)genome assembly to analyze the molecular evolutionary mechanism of volatile compounds in peach fruits. The Plant Journal, 108 (1):281-295.
doi: 10.1111/tpj.15439 pmid: 34309935 |
[5] |
Cao K, Zhou Z, Wang Q, Guo J, Zhao P, Zhu G, Fang W, Chen C, Wang X, Wang X, Tian Z, Wang L. 2016. Genome-wide association study of 12 agronomic traits in peach. Nature Communications, 7:13246.
doi: 10.1038/ncomms13246 pmid: 27824331 |
[6] | Deguchi M, Bennett A B, Yamaki S, Yamada K, Kanahama K, Kanayama Y. 2010. An engineered sorbitol cycle alters sugar composition,not growth,in transformed tobacco. Plant Cell & Environment, 29 (10):1980-1988. |
[7] | Jin Guang, Yan Shaobin, Guo Rui, Zhang Xiaodan, Yang Ling, Liao Ruyu, Zhou Ping. 2018. Effects of exogenous sorbitol spray on gene expression networks of peach leave. Journal of Fruit Science, 35 (9):1033-1042. (in Chinese) |
金光, 颜少宾, 郭瑞, 张小丹, 杨凌, 廖汝玉, 周平. 2018. 外源山梨醇对桃苗叶片基因表达网络的影响. 果树学报, 35 (9):1033-1042. | |
[8] |
Josef B, Monika E S F. 1995. Comparison of sorbitol transport in excised tissue discs and cortex tissue of intact apple fruit. Journal of Plant Physiology, 146 (1-2):95-102.
doi: 10.1016/S0176-1617(11)81973-5 URL |
[9] |
Kou Dandan, Zhang Ye, Wang Pengfei, Li Dongdong, Zhang Xueying, Chen Haijiang. 2019. Differences in sucrose and malic acid accumulation and the related gene expression in‘Kurakato Wase’peach and its early-ripening mutant. Acta Horticulturae Sinica, 46 (12):2286-2298. (in Chinse)
doi: 10.16420/j.issn.0513-353x.2019-0187 |
寇单单, 张叶, 王朋飞, 李东东, 张学英, 陈海江. 2019. ‘仓方早生’桃及其早熟芽变果实蔗糖和苹果酸积累与相关基因表达. 园艺学报, 46 (12):2286-2298.
doi: 10.16420/j.issn.0513-353x.2019-0187 |
|
[10] |
Li C, Meng D, Piñeros MA, Mao Y, Dandekar AM, Cheng L. 2020. A sugar transporter takes up both hexose and sucrose for sorbitol-modulated in vitro pollen tube growth in apple. Plant Cell, 32 (2):449-469.
doi: 10.1105/tpc.19.00638 URL |
[11] | Li Qiuli, Yang Wenjia, Gao Dengtao, Wei Zhifeng, Yu Huili, Liu Junwei. 2019. Effects of sorbitol and sucrose on soluble sugar content of peach fruits and leaves and fruits quality. Journal of Henan Agricultural Sciences, 48 (8):110-116. (in Chinese) |
李秋利, 杨文佳, 高登涛, 魏志峰, 于会丽, 刘军伟. 2019. 山梨醇和蔗糖对桃果实、叶片可溶性糖含量及果实品质的影响. 河南农业科学, 48 (8):110-116. | |
[12] |
Li Y, Cao K, Zhu G, Fang W, Chen C, Wang X, Zhao P, Guo J, Ding T, Guan L, Zhang Q, Guo W, Fei Z, Wang L. 2019. Genomic analyses of an extensive collection of wild and cultivated accessions provide new insights into peach breeding history. Genome Biology, 20 (1):36.
doi: 10.1186/s13059-019-1648-9 pmid: 30791928 |
[13] |
Liang D, Cui M, Wu S, Ma F. 2012. Genomic Structure,Sub-cellular localization,and promoter analysis of the gene encoding Sorbitol-6-Phosphate Dehydrogenase from Apple. Plant Molecular Biology Reporter, 30 (4):904-914.
doi: 10.1007/s11105-011-0409-z URL |
[14] | Liu Huimin, Yu Huili, Shao Wei, Xu Bianbian, Zhang Zihua, Shi Zhaoyang, Zhao Xianfei, Xu Gguoyi, Yang Jinghui, Si Peng. 2021. Effects of sorbitol and mannitol combined with NPK on the growth,fruit quality and nutrient absorption of peach. Journal of Fruit Science, 38 (6):911-921. (in Chinese) |
刘慧敏, 于会丽, 邵微, 徐变变, 张子华, 史兆阳, 赵先飞, 徐国益, 杨静慧, 司鹏. 2021. 山梨醇和甘露醇与氮磷钾配施对桃生长、果实品质及养分吸收的影响. 果树学报, 38 (6):911-921. | |
[15] |
Meng D, He M, Bai Y, Xu H, Dandekar A M, Fei Z, Cheng L. 2018. Decreased sorbitol synthesis leads to abnormal stamen development and reduced pollen tube growth via an MYB transcription factor,MdMYB39L,in apple(Malus domestica). New Phytologist, 217:641-656.
doi: 10.1111/nph.14824 URL |
[16] | Moing A. 2000. Sugar alcohols as carbohydrate reserves in some higher plants. Developments in Crop Science, 26:337-358. |
[17] |
Naoaki K, Yuji I, Sadao K, Michiko S, Hidenori K, Sae T, Mitsuo O, Junichi S, Katsuhiro S, Kunio Y, Shohei Y. 2004. Transgenic apple transformed by sorbitol-6-phosphate dehydrogenase cDNA:switch between sorbitol and sucrose supply due to its gene expression. Plant Science, 167 (1):55-61.
doi: 10.1016/j.plantsci.2004.02.024 URL |
[18] |
Nosarzewski M, Downie A B, Wu B, Archbold D D. 2012. The role of SORBITOL DEHYDROGENASE in Arabidopsis thaliana. Functional Plant Biology, 39 (6):462-470.
doi: 10.1071/FP12008 pmid: 32480797 |
[19] |
Ryutaro T, Sandra L, Abhaya M. 1995. Sorbitol synthesis in transgenic tobacco with apple cdna encoding nadp-dependent sorbitol-6-phosphate dehydrogenase. Plant and Cell Physiology, 36 (3):525-532.
doi: 10.1093/oxfordjournals.pcp.a078789 pmid: 7757342 |
[20] |
Shen Zhijun, Ma Ruijuan, Yu Mingliang, Cai Zhixiang, Song Hongfeng, Li Xiao. 2007. Regularity analysis of main sugar and acid in fruit development of peach. Acta Agriculturae Boreali-Sinica, 22 (6):130-134. (in Chinese)
doi: 10.7668/hbnxb.2007.06.027 |
沈志军, 马瑞娟, 俞明亮, 蔡志翔, 宋宏峰, 李晓. 2007. 桃果实发育过程中主要糖及有机酸含量的变化分析. 华北农学报, 22 (6):130-134.
doi: 10.7668/hbnxb.2007.06.027 |
|
[21] |
Swarbreck D, Wilks C, Lamesch P, Berardini TZ, Garcia-Hernandez M, Foerster H, Li D, Meyer T, Muller R, Ploetz L, Radenbaugh A, Singh S, Swing V, Tissier C, Zhang P, Huala E. 2008. The Arabidopsis Information Resource(TAIR):gene structure and function annotation, Nucleic Acids Research, 36(suppl_1):D1009-D1014.
doi: 10.1093/nar/gkm965 URL |
[22] | Wang Guifang, Yao Yuantao, Li Suhong, Dong Yaru, Gao Xiaolan, Wang Hong, Gao Huaifeng, Liang Jiahui, Zhang Yong, Wei Shuwei. 2021. Effects of nitrogen,phosphorous and potassium foliar fertilizer combined with different carbon sources on new shoot growth and fruit quality of peach trees. Shandong Agricultural Sciences, 53 (1):69-76. (in Chinese) |
王贵芳, 姚元涛, 李素红, 董亚茹, 高晓兰, 王红, 郜怀峰, 梁家慧, 张勇, 魏树伟. 2021. 氮磷钾叶面肥配施不同碳源对桃树新梢生长及果实品质的影响. 山东农业科学, 53 (1):69-76. | |
[23] | Yang Guang, Li Lingyu, Huang Mingli, Yang Fanchang, Zhang Fengkui, Xu Rongchen, Yan Dongyun. 2018. Progresses in study on sorbitol effect on plants resistance. Soils, 50 (3):446-454. (in Chinese) |
杨光, 李玲玉, 黄明丽, 杨凡昌, 张凤魁, 徐荣臣, 颜冬云. 2018. 山梨醇对植株抗逆性作用的研究进展. 土壤, 50 (3):446-454. | |
[24] |
Yasuo S, Abhaya M D. 2013. Sucrose induces expression of the sorbitol-6-phosphate dehydrogenase gene in source leaves of loquat. Physiologia Plantarum, 150 (3):355-362.
doi: 10.1111/ppl.2014.150.issue-3 URL |
[25] | Ye Chengrong. 2011. Studies on sorbitol metabolism and enzymological regulating mechanism in developing apple fruit[M. D. Dissertation]. Qingdao: Qingdao Agricultural University. (in Chinese) |
叶成荣. 2011. 苹果果实发育过程中山梨醇代谢及酶学调控机理研究[硕士论文]. 青岛: 青岛农业大学. | |
[26] |
Yu Caiyun, Gu Cao, Zhang Shaoling. 2018. Analysis of tissue specific expression of SOT gene family in white pear. Botanical Research, 7 (5):496-506. (in Chinese)
doi: 10.12677/BR.2018.75060 URL |
余彩云, 谷超, 张绍铃. 2018. 白梨SOT基因家族成员组织表达特性的分析. 植物学研究, 7 (5):496-506. | |
[27] |
Yu Y, Guan J, Xu Y, Ren F, Zhang Z, Yan J, Fu J, Guo J, Shen Z, Zhao J, Jiang Q, Wei J, Xie H. 2021. Population-scale peach genome analyses unravel selection patterns and biochemical basis underlying fruit flavor. Nature Communications, 12:3604.
doi: 10.1038/s41467-021-23879-2 pmid: 34127667 |
[28] | Zhao Ruifen, Jiao Xiaoyan, Yang Zhiping. 2020. Effect of foliar application of sorbitol on boron transportation in boron deficiency Phaseolus aureus. Tianjin Agricultural Sciences, 26 (6):7-11. (in Chinese) |
赵瑞芬, 焦晓燕, 杨治平. 2020. 叶面施用山梨糖醇对缺硼绿豆体内硼运输的影响. 天津农业科学, 26 (6):7-11. | |
[29] | Zhou Ping, Guo Rui, Liao Ruyu, Yan Shaobin, Jin Gunag, Yang Ling, Yao Qiyin. 2016. Effect of exogenous sorbitol on the soluble sugar content in peach fruit. South China Fruits, 45 (2):119-121. (in Chinese) |
周平, 郭瑞, 廖汝玉, 颜少宾, 金光, 杨凌, 姚启英. 2016. 喷施外源山梨醇对桃果实可溶性糖含量的影响. 中国南方果树, 45 (2):119-121. | |
[30] | Zhou Ping, Lin Zhikai, Guo Rui, Yan Shaobin, Zhang Xiaodan, Ma Xinyi, Jin Guang. 2021. Effects of low temperature treatment on gene expression and flavonoids biosynthesis metabolism in peach(Prunus persica)leaves. Journal of Agricultural Biotechnology, 29 (7):1283-1294. (in Chinese) |
周平, 林志楷, 郭瑞, 颜少宾, 张小丹, 马昕怡, 金光. 2021. 低温处理对桃树叶片基因表达及类黄酮合成代谢的影响. 农业生物技术学报, 29 (7):1283-1294. | |
[31] | Zhou Ping, Ma Xinyi, Guo Rui, Yan Shaobin, Zhang Xiaodan, Lin Zhicong, Jin Guang. 2020a. Effects of exogenous sorbitol and its analogs on iron transport and phytohormone contents in peach leaves and fruit. Journal of Fruit Science, 37 (4):502-510. (in Chinese) |
周平, 马昕怡, 郭瑞, 颜少宾, 张小丹, 林志聪, 金光. 2020a. 喷施外源山梨醇及其类似物对桃叶片和果实离子转运及激素含量的影响. 果树学报, 37 (4):502-510. | |
[32] | Zhou Ping, Yan Shaobin, Guo Rui, Zhang Xiaodan, Liao Ruyu, Jin Guang, Wu Rui-dong. 2020b. Effects of sorbitol spraying on flavonoid and carotenoids content of bag-releasing peach. Southeast Horticulture, 8 (4):5-9. (in Chinese) |
周平, 颜少宾, 郭瑞, 张小丹, 廖汝玉, 金光, 吴瑞东. 2020b. 喷施山梨醇对解袋后桃果肉类黄酮类胡萝卜素含量的影响. 东南园艺, 8 (4):5-9. | |
[33] |
Zhu Lingcheng, Su Jing, Peng Yunjing, Cao Wenjing, Ma Fengwang, Ma Baiquan, Li Mingjun. 2022. Research progress on the relationship between sugar transporters and fruits sugar accumulation. Acta Horticulturae Sinica, 49 (12):2529-2542. (in Chinese)
doi: 10.16420/j.issn.0513-353x.2021-0488 |
祝令成, 苏静, 彭云静, 曹文静, 马锋旺, 马百全, 李明军. 2022. 糖转运蛋白与果实糖积累的关系研究进展. 园艺学报, 49 (12):2529-2542.
doi: 10.16420/j.issn.0513-353x.2021-0488 |
[1] | . A New Self-fruitful Pear Cultivar‘Wanli 6’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 11-12. |
[2] | SHI Meng, LIU Fengzhi, WANG Haibo, WANG Yingying, SHI Xiangbin, WANG Zhiqiang, LI Peng, LIU Wanchun, and WANG Xiaodi. A New Mid-ripening and Cold Resistant Peach Cultivar‘Zhonghan Cuixia’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 15-16. |
[3] | YANG Xingwang, WANG Yingying, WANG Haibo, WANG Xiaolong, WANG Zhiqiang, SHI Xiangbin, JI Xiaohao, LIU Wanchun, and WANG Xiaodi. A New Mid-ripening and Cold Resistant Peach Cultivar‘Zhonghan Hongqiong’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 17-18. |
[4] | DUAN Wenyi, NIU Liang, CUI Guochao, ZENG Wenfang, PAN Lei, SUN Shihang, and WANG Zhiqiang. A Late-ripening Yellow Peach Cultivar‘Zhongtaohuangjinmi No. 5’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 23-24. |
[5] | QI Yongjie , GAO Zhenghui , MA Na , GAO Xia , KE Fanjun , and XU Yiliu, . A New High-quality Drought-resistant Kiwifruit Cultivar‘Jinshan 1’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 29-30. |
[6] | ZHAO Xia, LI Gang, LIU Lifeng, HU Panpan, SONG Yanhong, and ZHOU Houcheng. A New Strawberry Cultivar‘Huafeng 1’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 35-36. |
[7] | CHEN Jiamin, XIRAO Zhuzan, WANG Zhiling, CAI Yuting, XU Yanjie, ZHAO Xin, GU Zhaoyu, and HONG Bo. A New Fruity Chrysanthemum morifolium Cultivar‘Xiaokuixiang’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 117-118. |
[8] | LÜ Yunzhou, DONG Xiaoyun, SUN Hainan, LIANG Zhenhai, and HUANG Libin. A New Koelreuteria paniculata Cultivar‘Caihong’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 187-188. |
[9] | PAN Keyu , MENG Gang , SHAO Weiqian , HUANG Cheng , YANG Fan , WU Mengmeng , and FU Songling, . A New Cotinus coggygria Cultivar‘Wanlu 1’ [J]. Acta Horticulturae Sinica, 2023, 50(S1): 189-190. |
[10] | YANG Mengxia, LIU Xiaolin, CAO Xue, WEI Kai, NING Yu, YANG Pei, LI Shanshan, CHEN Ziyue, WANG Xiaoxuan, GUO Yanmei, DU Yongchen, LI Junming, LIU Lei, LI Xin, HUANG Zejun. Construction and Application of a CRISPR/Cas9 System for Multiplex Gene Editing in Tomato [J]. Acta Horticulturae Sinica, 2023, 50(6): 1215-1229. |
[11] | ZHOU Cheng, FANG Yi, ZHOU Jinyang, HUANG Qihao, PAN Yongjian, SHI Qianqian, NI Huixian, YANG Zhenfeng, SONG Chunbo. The Relationship Between Membrane Lipid Metabolism and Chilling Injury of Postharvest Peach Fruit Induced by Low Temperature [J]. Acta Horticulturae Sinica, 2023, 50(6): 1305-1317. |
[12] | LIU Nanxiang, ZHANG Huiqin, XIE Ming, XU Xianghua, FAN Fangjuan. A New Kiwifruit Cultivar‘Jinli’ [J]. Acta Horticulturae Sinica, 2023, 50(6): 1377-1378. |
[13] | XIAO Xiang, ZHOU Chujiang, JIN Shuwan, SHI Liyu, YANG Zhenfeng, CAO Shifeng, CHEN Wei. Mechanism of PpMADS2 and PpMADS3 Synergistically Regulating Carotenoids Accumulation in Peach Fruit [J]. Acta Horticulturae Sinica, 2023, 50(6): 1173-1186. |
[14] | LI Guobin, CAI Liangyu, XIAO Licheng, WANG Jiafa, ZHANG Dedi, ZHANG Junhong. Creating Pink Fruit and Fruit Without Green Shoulder Using CRISPR/ Cas9 Technology in Tomato [J]. Acta Horticulturae Sinica, 2023, 50(5): 985-999. |
[15] | LI Shupei, ZHANG Ying, SHU Jinshuai, CHEN Yuhui, YANG Jinkun, CHEN Lulu, LIU Fuzhong. The Characteristics and Chloroplast Ultrastructure of Yellow Leaf Mutant chl234 in Eggplant [J]. Acta Horticulturae Sinica, 2023, 50(5): 1000-1008. |
Viewed | ||||||
Full text |
|
|||||
Abstract |
|
|||||
Copyright © 2012 Acta Horticulturae Sinica 京ICP备10030308号-2 国际联网备案号 11010802023439
Tel: 010-82109523 E-Mail: yuanyixuebao@126.com
Support by: Beijing Magtech Co.Ltd