Volatile Characterization of Major Apricot Cultivars of Southern Xinjiang Region of China

文献类型: 外文期刊

第一作者: Feng, Jian-rong

作者: Feng, Jian-rong;Liu, Hai-nan;Liu, Xiao-fang;Lu, Xiao-yan;Xi, Wan-peng;Li, Wen-hui;Li, Wen-hui

作者机构:

关键词: fruit;aroma;gas chromatography-mass spectroscopy;high-performance solid-phase microextraction

期刊名称:JOURNAL OF THE AMERICAN SOCIETY FOR HORTICULTURAL SCIENCE ( 影响因子:1.144; 五年影响因子:1.617 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: The characterization of aroma of the 14 main apricot (Prunus armeniaca L.) cultivars in Xinjiang was evaluated using high-performance solid-phase microextraction (HP-SPME) with gas chromatography-mass spectroscopy (GC-MS). A total of 208 volatiles that include 80 esters, 25 aldehydes, 15 terpenes, 21 ketones, 39 alcohols, 27 olefins, and 1 acid were identified from these cultivars. The compounds propyl acetate, 3-methyl-1-butanol acetate, (Z)-3-hexen-1-ol acetate, D-limonene, beta-linalool, hexanal, hexyl acetate, butyl acetate, beta-myrcene, ethyl butanoate, and beta-cis-ocimene were the major compounds responsible for aroma in these cultivars. GC-MS results showed that Kuchexiaobaixing, Guoxiyuluke, and seven other cultivars were characterized by a high level of esters and were considered to be fruity apricot aroma. 'Luotuohuang' and 'Heiyexing' accumulate high levels of terpenes and exhibited an outstanding floral aroma. Higher levels of alcohols and aldehydes were observed in 'Danxing', 'Sumaiti', and 'Kumaiti'. The latter are considered green aroma cultivars. These three types of cultivars with different aroma characteristics can be significantly differentiated by using the principal component analysis (PCA) method. The contributions of volatiles to the apricot aroma were assessed by using the partial least squares regression (PLSR) model. Esters, terpenes, and C6 components were shown to be responsible for the fruity, floral, and green character of fresh apricots, respectively.

分类号: S6

  • 相关文献

[1]Effects of postharvest methyl jasmonate treatment on aromatic volatile biosynthesis by 'Nanguoli' fruit at different harvest maturity stages. Qin, G. H.,Wei, S. W.,Tao, S. T.,Zhang, H. P.,Huang, W. J.,Yao, G. F.,Zhang, S. L.,Qin, G. H.,Wei, S. W.,Sha, S. F..

[2]Study on Extraction of Volatile Compounds in Guava Fruit by Different Solid Phase Micro-Extraction Fibers. Li, Guo-peng,Jing, Wei,Lin, Li-jing,Li, Ji-hua,Zhao, Jun. 2013

[3]Identification of volatile and softening-related genes using digital gene expression profiles in melting peach. Li, Xiong-wei,Jiang, Jun,Zhang, Li-ping,Yu, Yi,Chai, Ming-liang,Jia, Hui-juan,Gao, Zhong-shan,Li, Xiong-wei,Ye, Zheng-wen,Wang, Xiu-min,Zhou, Jing-yi,Zhang, Hui-qin,Arus, Pere. 2015

[4]Does oolong tea (Camellia sinensis) made from a combination of leaf and stem smell more aromatic than leaf-only tea? Contribution of the stem to oolong tea aroma. Zeng, Lanting,Zhou, Ying,Fu, Xiumin,Mei, Xin,Cheng, Sihua,Gui, Jiadong,Yang, Ziyin,Zeng, Lanting,Zhou, Ying,Fu, Xiumin,Mei, Xin,Cheng, Sihua,Gui, Jiadong,Yang, Ziyin,Zeng, Lanting,Cheng, Sihua,Gui, Jiadong,Yang, Ziyin,Dong, Fang,Tang, Jinchi,Tang, Jinchi,Ma, Shengzhou. 2017

[5]Aroma Characterization of 'Flavor No. 3' Melon Using Headspace-Solid Phase Microextraction Combined with Gas Chromatography-Mass Spectrometry. Tang, Mi,Bie, Zhilong,Wu, Mingzhu,Yi, Hongping,Feng, Jiongxin. 2010

[6]Formation and emission of linalool in tea (Camellia sinensis) leaves infested by tea green leafhopper (Empoasca (Matsumurasca) onukii Matsuda). Mei, Xin,Liu, Xiaoyu,Zhou, Ying,Wang, Xiaoqin,Zeng, Lanting,Fu, Xiumin,Yang, Ziyin,Mei, Xin,Liu, Xiaoyu,Zhou, Ying,Wang, Xiaoqin,Zeng, Lanting,Fu, Xiumin,Yang, Ziyin,Liu, Xiaoyu,Wang, Xiaoqin,Zeng, Lanting,Yang, Ziyin,Li, Jianlong,Tang, Jinchi,Li, Jianlong,Tang, Jinchi,Dong, Fang. 2017

[7]Effects of Preheating and Storage Temperatures on Aroma Profile and Physical Properties of Citrus-Oil Emulsions. Yang, Ying,Zhao, Chengying,Tian, Guifang,Lu, Chang,Zhao, Shaojie,Bao, Yuming,Zheng, Jinkai,McClements, David Julian,Xiao, Hang,Zheng, Jinkai.

[8]Calcium treatments promote the aroma volatiles emission of pear (Pyrus ussuriensis 'Nanguoli') fruit during post-harvest ripening process. Wei, Shuwei,Qin, Gaihua,Zhang, Huping,Tao, Shutian,Wu, Jun,Zhang, Shaoling,Wei, Shuwei,Wang, Shaomin,Qin, Gaihua.

[9]alpha-Farnesene and ocimene induce metabolite changes by volatile signaling in neighboring tea (Camellia sinensis) plants. Zeng, Lanting,Liao, Yinyin,Zhou, Ying,Yang, Ziyin,Zeng, Lanting,Liao, Yinyin,Zhou, Ying,Yang, Ziyin,Zeng, Lanting,Liao, Yinyin,Yang, Ziyin,Li, Jianlong,Tang, Jinchi,Li, Jianlong,Tang, Jinchi,Dong, Fang.

[10]Production of concentrated kiwifruit juice by integrated membrane process. Cassano, A,Jiao, B,Drioli, E.

[11]A single nucleotide polymorphism (SNP) marker linked to the fragrance gene in rice (Oryza sativa L.). Jin, QS,Waters, D,Cordeiro, GM,Henry, RJ,Reinke, RF.

[12]Aroma characterisation of Pu-erh tea using headspace-solid phase microextraction combined with GC/MS and GC-olfactometry. Lv, Hai-Peng,Lin, Zhi,Wang, Li,Tan, Jun-Feng,Guo, Li,Zhong, Qiu-Sheng.

[13]Separation of aroma components in Xihu Longjing tea using simultaneous distillation extraction with comprehensive two-dimensional gas chromatography-time-of-flight mass spectrometry. Zhu, Yin,Lv, Hai-Peng,Dai, Wei-Dong,Guo, Li,Tan, Jun-Feng,Zhang, Yue,Yu, Fang-Lin,Shao, Chen-Yang,Peng, Qun-Hua,Lin, Zhi,Shao, Chen-Yang,Yu, Fang-Lin.

[14]Aroma changes of black tea prepared from methyl jasmonate treated tea plants. Shi, Jiang,Ma, Cheng-ying,Lv, Hai-peng,Chen, Zong-mao,Lin, Zhi,Shi, Jiang,Wang, Li. 2014

[15]Volatile profiling of two pear genotypes with different potential for white pear aroma improvement. Yi, Xing-Kai,Liu, Guo-Feng,Rana, Mohammad M.,Wei, Shu,Yi, Xing-Kai,Yi, Xing-Kai,Zhu, Li-Wu,Jiang, Shu-Liang,Huang, Yong-Feng,Lu, Wei-Ming.

[16]Volatile characteristics of 50 peaches and nectarines evaluated by HP-SPME with GC-MS. Wang, Yiju,Li, Shaohua,Wang, Yiju,Yang, Chunxiang,Yang, Liu,Wang, Younian,Zhao, Jianbo,Jiang, Quan,Wang, Yiju.

[17]Functional characterizations of beta-glucosidases involved in aroma compound formation in tea (Camellia sinensis). Zhou, Ying,Zeng, Lanting,Gui, Jiadong,Liao, Yinyin,Yang, Ziyin,Zhou, Ying,Zeng, Lanting,Gui, Jiadong,Liao, Yinyin,Yang, Ziyin,Zeng, Lanting,Gui, Jiadong,Yang, Ziyin,Li, Jianlong,Tang, Jingchi,Li, Jianlong,Tang, Jingchi,Meng, Qing,Dong, Fang.

[18]Genetic analysis and gene fine mapping of aroma in rice (Oryza sativa L. cyperales, poaceae). Gao, Fang Yuan,Lu, Xian Jun,Ren, Guang Jun,Sun, Shu Xia,Wu, Xian Jun,Wang, Xu Dong,Luo, Hong.

[19]Formation of (E)-nerolidol in tea (Camellia sinensis) leaves exposed to multiple stresses during tea manufacturing. Zhou, Ying,Zeng, Lanting,Liu, Xiaoyu,Gui, Jiadong,Mei, Xin,Fu, Xiumin,Yang, Ziyin,Zhou, Ying,Zeng, Lanting,Liu, Xiaoyu,Gui, Jiadong,Mei, Xin,Fu, Xiumin,Yang, Ziyin,Zeng, Lanting,Liu, Xiaoyu,Gui, Jiadong,Yang, Ziyin,Dong, Fang,Tang, Jingchi,Tang, Jingchi,Zhang, Lingyun.

[20]Transcriptome profiling reveals the candidate genes associated with aroma metabolites and emission of pear (Pyrus ussuriensis cv.). Wei, Shuwei,Tao, Shutian,Qin, Gaihua,Wu, Jun,Wu, Juyou,Zhang, Shaoling,Wei, Shuwei,Wang, Shaomin,Tao, Jihan.

作者其他论文 更多>>