Scientia Agricultura Sinica ›› 2018, Vol. 51 ›› Issue (18): 3551-3560.doi: 10.3864/j.issn.0578-1752.2018.18.011

• HORTICULTURE • Previous Articles     Next Articles

Effects of Different Pollination Combinations on the Fruit Quality of ‘Fuji’ and ‘Starkrimson’ Apple

ManMan ZHANG(), ZengHui WANG, YunFei MAO, ShanShan CHAI, XiaoHong ZHAO, YiChang FAN, Wei NI, ZhiQuan MAO, XueSen CHEN, Xiang SHEN()   

  1. College of Horticulture Science and Engineering, Shandong Agricultural University/State Key Laboratory for Crop Biology/ Shandong Collaborative Innovation Center for Fruit and Vegetable Production with High Quality and Efficiency, Taian 271018, Shandong
  • Received:2018-04-08 Accepted:2018-06-07 Online:2018-09-16 Published:2018-09-16

Abstract:

【Objective】The objective of this study is to explore the effect of different pollination cultivars on apple quality and volatile substance, and to provide a basis for the breeding of efficient self-pollination trees and improvement of apple fruit quality.【Method】This study investigated the apple cultivars including ‘Fuji’ and ‘Starkrimson’, which were pollinated before the blooming period by pollen from efficient pollination trees ‘Hongling’ ‘Hongjin’ ‘Hongwu’, ‘Gala’ pollen was served as a control. The content of flavonoids in fruits was measured at fruit development stage every 20 days. The external and internal quality of fruits at maturity stage were determined, such as fruit weight, fruit shape, fruit hardness, volatile substances and peel anthocyanin content.【Result】Except for titratable acid, the quality indexes of ‘Fuji’ and ‘Starkrimson’ apple fruits were higher than those of the control under the conditions of different pollination trees. After the ‘Fuji’ apple was pollinated by ‘Hongling’, its fruit shape index, hardness, anthocyanin and soluble sugar content increased significantly, 1.12, 1.15, 1.28 and 1.12 times as much as that of the control, respectively. After the ‘Starkrimson’ apple was pollinated by ‘Hongwu’, its single fruit weight, fruit shape index, anthocyanin, soluble solids, and soluble sugar content all increased significantly, 1.22, 1.12, 2.48, 1.10 and 1.11 times as much as that of the control, respectively. The titratable acid content was significantly reduced, only 75% of the control. During the whole growth period of fruit development, the content of flavonoids in apples of ‘Fuji’ and ‘Starkrimson’ treated by different pollination trees was higher than that of the control, and there were significant differences among different cultivars. At 160 d after flowering, the content of flavonoids in the fruit of ‘Fuji’ pollinated by ‘Hongling’ ‘Hongjin’ and ‘Hongwu’ increased by 19.63%, 28.72%, and 13.97%, respectively. At 120 d after flowering, the content of flavonoids in ‘Starkrimson’ apples increased by 14.18%, 15.26%, and 4.24%, respectively. The difference was significant. The relative contents of total ester volatiles in ‘Fuji’ and ‘Starkrimson’ apple fruits pollinated by ‘Hongling’ ‘Hongwu’ ‘Hongjin’ and control pollination were 50.20%, 52.03%, 42.68%, 45.10%, and 71.08%, 68.85%, 71.83%, 66.03%. After pollinated by ‘Hongling’, the content of total ester volatile substances in fruits of ‘Fuji’ and ‘Starkrimson’ increased significantly, the content of ethyl 2-methyl-butyrate was 1.14 and 203.91 times as much as that of the control, respectively. In ‘Fuji’ apple, the content of 2-methyl-butyl acetate in pollination fruits of ‘Hongling’ ‘Hongwu’ and ‘Hongjin’ was 1.73, 1.07 and 1.36 times as much as that of the control, respectively. The content of ethyl caproate and butyl acetate was 1.09, 1.12, 1.29 and 1.50, 0.77, 1.30 times as much as that of the control, respectively. In ‘Starkrimson’ apple, the content of 2-methyl-butyl acetate and ethyl caproate was 1.82, 1.27, 0.93 and 2.57, 1.15, 0.27 times as much as that of the control after pollinated by ‘Hongling’ ‘Hongwu’ and ‘Hongjin’, respectively, the content of butyl acetate was 7.83, 3.48 and 3.30 times as much as that of the control. In addition, the content of hydrocarbons of ‘Fuji’ and ‘Starkrimson’ apples after pollinated by ‘Hongling’ was higher than that of the control, which mainly showed the increase in farnesene. 【Conclusion】The appearance and intrinsic quality of ‘Fuji’ and ‘Starkrimson’ were improved significantly by high efficient pollination trees. The effect of different pollination combinations on the quality of ‘Fuji’ and ‘Starkrimson’ apples was significantly different. After pollinated by ‘Hongling’, the quality of ‘Fuji’ and ‘Starkrimson’apple fruits was significantly improved.

Key words: pollination, ‘Fuji’ apple, ‘Starkrimson’ apple, nutrient substance, aroma

Table 1

Main fruit characters of different pollination cultivars"

品种
Cultivar
直径
Diameter (cm)
果色
Fruit color
果熟期
Fructescence
主要特征
Main characteristics
红菱Hongling 0.8-1.0 紫红色Purple 8月中旬Mid-August 两端均凹陷,脱萼Both ends are sunken, fruit calyx off
红锦Hongjin 1.0-1.5 橙红色Orange red 8月中旬Mid-August 两端均凹陷,果萼短Both ends are sunken and the fruit calyx is short
红雾Hongwu 1.0-1.5 暗红色Dark red 9月上旬Early September 果点明显,果萼极长,外凸Fruit point is obvious, fruit calyx is very long, convex

Table 2

Effect of different pollination combinations on apple fruit quality at maturity stage of ‘Fuji’ and ‘Starkrimson’"

处理
Treatment
单果重
Single fruit weight (g)
果形指数
Fruit shape
index
硬度
Hardness (kg·cm-2)
花色苷
Anthocyanin (mg·g-1)
可溶性固形物
Soluble solid
(%)
可溶性糖
Soluble sugar (%)
可滴定酸
Titratable acid
(%)
FS-对照FS-Control 212.01±5.55b 0.78±0.01b 7.42±0.33b 0.25±0.03b 12.08±0.22b 10.50±0.25b 0.37±0.03a
FS-红菱FS-Hongling 229.83±2.97a 0.87±0.01a 8.53±0.26a 0.32±0.01a 12.94±0.16a 11.80±0.14a 0.31±0.03ab
FS-红锦FS-Hongjin 223.86±3.64ab 0.87±0.03a 7.80±0.32ab 0.28±0.01ab 12.48±0.27ab 10.87±0.21b 0.30±0.01ab
FS-红雾FS-Hongwu 231.29±3.14a 0.85±0.02a 7.65±0.28ab 0.27±0.02ab 12.71±0.14ab 11.07±0.23b 0.28±0.02b
HX-对照HX-Control 195.92±2.92c 0.83±0.02b 7.04±0.24b 0.25±0.01c 11.67±0.25b 9.80±0.31b 0.44±0.02a
HX-红菱HX-Hongling 226.48±2.78b 0.92±0.04a 7.92±0.38ab 0.43±0.04b 12.58±0.32ab 10.81±0.29a 0.41±0.03a
HX-红锦HX-Hongjin 216.77±4.23b 0.85±0.02ab 8.05±0.21a 0.37±0.02b 12.29±0.37ab 10.71±0.27a 0.37±0.02ab
HX-红雾HX-Hongwu 238.27±2.49a 0.93±0.03a 7.79±0.20ab 0.62±0.02a 12.88±0.19a 10.89±0.10a 0.33±0.02b

Fig. 1

The content of flavonoid in apple fruit with different pollination combinations The same lowercases above bars indicate no significant difference among treatments (P>0.05)"

Table 3

Effect of different pollination combinations on content of major volatile substances of apple fruit (μg/100 g FW)"

化合物名称
Compound name
富士Fuji 新红星Starkrimson
红菱Hongling 红雾Hongwu 红锦Hongjin 对照Control 红菱Hongling 红雾Hongwu 红锦Hongjin 对照Control
酯类Ester 1195.23 500.31 627.65 663.23 3948.89 1811.84 1995.26 971
乙酸-2-甲基丁酯2-Methyl-butyl acetate 228.33 141.25 179.26 131.76 392.22 274.47 201.11 215.88
乙酸己酯Hexyl acetate 200.24 75.77 436.67
异戊酸己酯Hexyl isovalerate 134.52 41.15 61.91 89.26 52.35
己酸丁酯Butyl caproate 125.48 13.56 22.21 45.15
己酸己酯Hexyl hexanoate 82.14 14.62 24.71 45.88 108.33 48.16 54.44 17.94
2-甲基丁酸丁酯Butyl 2-methyl-butanoate 75.95 25.48 35.29 51.62 70.26 87.22 24.26
丙酸己酯Hexyl propionate 65.24 31.47 235.56 115.00
己酸乙酯Ethyl hexanoate 64.76 66.83 76.62 59.41 1122.22 503.95 118.33 437.50
乙酸丁酯Butyl acetate 45.48 23.37 39.26 30.29 109.44 48.68 46.11 13.97
丙酸丁酯Butyl propanoate 33.57 6.54 17.35 21.62 55.56 22.89 26.39 5.29
丁酸丁酯Butyl butyrate 30.48 13.27 22.65 26.32 92.78 87.37 95.83 13.38
2-甲基丁酸异丙酯2-Methylbutyric acid isopropyl ester 22.14 5.19 16.47 15.00 26.03
己酸丙酯Propyl hexanoate 18.10 5.88 13.97 212.78 116.32 107.78 19.26
2-甲基丁酸戊酯2-Methyl butyrate 11.67 2.40 4.12 7.65 52.78 24.74
丁酸乙酯Ethyl butanoate 6.19 7.31 8.82 4.26 9.71
丙酸丙酯Propyl propanoate 4.52 3.09 2.79 32.78 20.79 19.72 1.91
异丁酸己酯Hexyl isobutyrate 4.52 2.21 3.09 1.76
辛酸丙酯Propyl octanoate 3.57 2.06 3.33 1.05 1.67
乙酸丙酯Propyl acetate 3.33 2.21 16.05 16.67
辛酸乙酯Ethyl caprylate 3.33 4.81 8.53 3.24 2.78 1.11
庚酸乙酯Ethyl Heptanoate 3.10 3.37 3.82 2.94 6.11
2-甲基丁酸乙酯Ethyl 2-methyl-butyrate 14.29 12.88 31.18 12.50 179.44 0.88
丁酸丙酯Propyl butanoate 11.90 3.85 13.68 8.82 122.22 85.26 68.33 15.44
异丁酸丁酯Butyl isobutyrate 2.38 1.83 2.35 1.03 2.78 0.83
乙酸戊酯Pentyl acetate 20.48 24.71 17.65 65.56 41.32 35.00 18.97
丁酸己酯Hexyl butanoate 13.37 23.53 33.24
丁酸戊酯Amyl butyrate 2.98
乙酸-2-甲基丙酯2-Methyl-propyl acetate 3.33 1.05 0.83
异丙基-2-甲基丁酸酯Isopropyl-2-methylbutyrate 160.56 113.16 96.94
乙酸庚酯Heptyl acetate 4.44 1.11
正己基丁酸丁酯Butyl n-butyl butylate 541.11 178.16 225.00 95.59
己基2-甲基丁酸酯Hexyl 2-methylbutyrate 442.78 157.37 239.17 0.00
异己酸乙酯Ethyl isohexanoate 0.79 0.88
醇类Alcohols 240.97 183.17 178.98 202.49 83.34 76.58 52.78 80.89
仲辛醇Octanol 238.58 110.10 90.74 122.35
己醇Hexanol 126.20 27.88 38.09 35.29 66.67 50.53 40.00 66.18
乙醇Ethanol 66.20 29.52 21.62 33.82
2-甲基丁醇2-Methyl-butanol 45.72 15.67 26.47 11.03 16.67 22.89 10.56 14.71
正丁醇1-Butanol 5.24 2.06 3.16 2.22
醛类Aldehydes 26.90 65.77 70.59 49.42 43.89 29.21 27.22 56.47
2-己烯醛2-Hexenal 39.42 41.18 33.24 35.00 25.00 23.89 43.09
正己醛Hexana 53.80 26.35 29.41 16.18 8.89 4.21 3.33 13.38
烃类Hydrocarbons 537.38 119.24 133.09 298.38 655.55 230.00 315.83 128.54
乙苯Henylethane 10.96 3.37 3.38 1.91 5.74
十六烷Cetane 4.47 3.33 1.47
十七烷Heptadeeane 8.33 0.28 0.59
法呢烯α-Farnesene 1063.80 115.87 129.71 296.47 647.22 225.53 312.22 120.74
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