Biotechnology Bulletin ›› 2021, Vol. 37 ›› Issue (7): 118-126.doi: 10.13560/j.cnki.biotech.bull.1985.2021-0576
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NI Chun-hui1(), LI Hui-xia1(), LI Wen-hao1, LIU Yong-gang2, XU Xue-fen1, HAN Bian1
Received:
2021-04-30
Online:
2021-07-26
Published:
2021-08-13
Contact:
LI Hui-xia
E-mail:2719723977@qq.com;lihx@gsau.edu.cn
NI Chun-hui, LI Hui-xia, LI Wen-hao, LIU Yong-gang, XU Xue-fen, HAN Bian. Comparison of Molecular Characteristics of the Hybrid Progenies from Different Haplotypes of Ditylenchus destructor[J]. Biotechnology Bulletin, 2021, 37(7): 118-126.
序号 Serial number | 线虫编号 Sample No. | 寄主 Host | 采集地 Collecting location | 基因型 Haplotype |
---|---|---|---|---|
1 | DXP1 | 马铃薯 | 甘肃省定西市安定区 | B |
2 | DXP2 | 马铃薯 | 甘肃省定西市安定区 | C |
3 | HLJP1 | 马铃薯 | 黑龙江绥化市 | C |
4 | MXA2 | 当归 | 甘肃省定西市岷县 | N |
5 | TCC1 | 党参 | 甘肃省定西市宕昌县 | B |
6 | ZXA1 | 当归 | 甘肃省定西市漳县 | H |
7 | WYA4 | 党参 | 甘肃省定西市渭源县 | K |
Table 1 Population information of D. destructor
序号 Serial number | 线虫编号 Sample No. | 寄主 Host | 采集地 Collecting location | 基因型 Haplotype |
---|---|---|---|---|
1 | DXP1 | 马铃薯 | 甘肃省定西市安定区 | B |
2 | DXP2 | 马铃薯 | 甘肃省定西市安定区 | C |
3 | HLJP1 | 马铃薯 | 黑龙江绥化市 | C |
4 | MXA2 | 当归 | 甘肃省定西市岷县 | N |
5 | TCC1 | 党参 | 甘肃省定西市宕昌县 | B |
6 | ZXA1 | 当归 | 甘肃省定西市漳县 | H |
7 | WYA4 | 党参 | 甘肃省定西市渭源县 | K |
亲本 (Parent)♀ | 亲本(Parent)♂ | |||||
---|---|---|---|---|---|---|
DXP1 | DXP2 | MXA2 | TCC1 | ZXA1 | WYA4 | |
DXP1 | ⊕ | × | Φ | × | Φ | × |
DXP2 | × | Φ | × | Φ | Φ | Φ |
MXA2 | × | × | Φ | Φ | × | Φ |
TCC1 | Φ | Φ | Φ | Φ | Φ | Φ |
ZXA1 | Φ | Φ | × | Φ | Φ | Φ |
HLJP1 | × | Φ | Φ | Φ | Φ | Φ |
Table 2 Population hybrids combinations of D. destructor
亲本 (Parent)♀ | 亲本(Parent)♂ | |||||
---|---|---|---|---|---|---|
DXP1 | DXP2 | MXA2 | TCC1 | ZXA1 | WYA4 | |
DXP1 | ⊕ | × | Φ | × | Φ | × |
DXP2 | × | Φ | × | Φ | Φ | Φ |
MXA2 | × | × | Φ | Φ | × | Φ |
TCC1 | Φ | Φ | Φ | Φ | Φ | Φ |
ZXA1 | Φ | Φ | × | Φ | Φ | Φ |
HLJP1 | × | Φ | Φ | Φ | Φ | Φ |
杂交组合(父本×母本) Hybridized combination (Male parent× Female parent) | 重复管数 Number of repetitions | 产生后代杂交管数 Number of progeny-produced tubes | 平均后代数(条/管) Average number of offspring (lines per tube) |
---|---|---|---|
DXP1×DXP1 | 20 | 5 | 18±2.7b |
DXP2×DXP1 | 20 | 5 | 6±1.7b |
DXP1×DXP2 | 20 | 3 | 2±0.6b |
WYA4×DXP1 | 20 | 2 | 1±0b |
DXP1× HLJP1 | 20 | 1 | 1±0b |
MXA2×ZXA1 | 20 | 5 | 1±0b |
ZXA1×MXA2 | 20 | 4 | 4±1.0b |
MXA2×DXP2 | 20 | 2 | 1±0b |
DXP2×MXA2 | 20 | 3 | 1±0b |
TCC1×DXP1 | 20 | 6 | 103±79.5a |
TCC1×HLJP1 | 20 | 2 | 3±1.0b |
Table 3 Biological hybridization results of D. destructor from different sources
杂交组合(父本×母本) Hybridized combination (Male parent× Female parent) | 重复管数 Number of repetitions | 产生后代杂交管数 Number of progeny-produced tubes | 平均后代数(条/管) Average number of offspring (lines per tube) |
---|---|---|---|
DXP1×DXP1 | 20 | 5 | 18±2.7b |
DXP2×DXP1 | 20 | 5 | 6±1.7b |
DXP1×DXP2 | 20 | 3 | 2±0.6b |
WYA4×DXP1 | 20 | 2 | 1±0b |
DXP1× HLJP1 | 20 | 1 | 1±0b |
MXA2×ZXA1 | 20 | 5 | 1±0b |
ZXA1×MXA2 | 20 | 4 | 4±1.0b |
MXA2×DXP2 | 20 | 2 | 1±0b |
DXP2×MXA2 | 20 | 3 | 1±0b |
TCC1×DXP1 | 20 | 6 | 103±79.5a |
TCC1×HLJP1 | 20 | 2 | 3±1.0b |
杂交组合(父本×母本)Hybridized combination(Male parent × Female parent) | 序列长度 Length of sequence | 差异碱基数Differences in the number of bases | ||||||
---|---|---|---|---|---|---|---|---|
父本 Male parent | 母本 Female parent | F1 | 亲本 Prent | F1与父本 F1 and male parent | F1与母本 F1 and female parent | |||
MXA2×ZXA1 | 727 | 888 | 915 | 164 | 38 | 83 | ||
DXP2×DXP1 | 915 | 915 | 915 | 23 | 1 | 24 | ||
DXP1×DXP2 | 915 | 915 | 915 | 23 | 24 | 1 | ||
TCC1×DXP1 | 915 | 915 | 915 | 0 | 0 | 0 | ||
DXP1×DXP1 | 915 | 915 | 915 | 0 | 0 | 0 |
Table 4 Sequence alignment results of hybrid progeny of D. destructor from different sources
杂交组合(父本×母本)Hybridized combination(Male parent × Female parent) | 序列长度 Length of sequence | 差异碱基数Differences in the number of bases | ||||||
---|---|---|---|---|---|---|---|---|
父本 Male parent | 母本 Female parent | F1 | 亲本 Prent | F1与父本 F1 and male parent | F1与母本 F1 and female parent | |||
MXA2×ZXA1 | 727 | 888 | 915 | 164 | 38 | 83 | ||
DXP2×DXP1 | 915 | 915 | 915 | 23 | 1 | 24 | ||
DXP1×DXP2 | 915 | 915 | 915 | 23 | 24 | 1 | ||
TCC1×DXP1 | 915 | 915 | 915 | 0 | 0 | 0 | ||
DXP1×DXP1 | 915 | 915 | 915 | 0 | 0 | 0 |
Fig. 2 Variations and alignment of helix H9 of ITS1 between hybrid progeny and parental of D. destructor A:Types of helix H9. B:Alignment of helix H9 sequence
Enzyme | Unrestricted PCR | DdeI | HinfI | Tru9I(MseI) | SduI |
---|---|---|---|---|---|
MXA2×ZXA1 | 915 | 550;355;10 | 650;174;54;34 | 467;215;193;31;9 | 318;257;191;149 |
DXP2×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
DXP1×DXP2 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
DXP1×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
TCC1×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
ZXA1 | 727 | 551;166;10 | 461;174;57;35 | 468;219;31;9 | 319;259;149 |
MXA2 | 888 | 551;327;10 | 622;174;57;35 | 468;380;31;9 | 420;319,;149 |
DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
DXP2 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
Table 5 Parental and F1 enzyme digestion results of D. destructor
Enzyme | Unrestricted PCR | DdeI | HinfI | Tru9I(MseI) | SduI |
---|---|---|---|---|---|
MXA2×ZXA1 | 915 | 550;355;10 | 650;174;54;34 | 467;215;193;31;9 | 318;257;191;149 |
DXP2×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
DXP1×DXP2 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
DXP1×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
TCC1×DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
ZXA1 | 727 | 551;166;10 | 461;174;57;35 | 468;219;31;9 | 319;259;149 |
MXA2 | 888 | 551;327;10 | 622;174;57;35 | 468;380;31;9 | 420;319,;149 |
DXP1 | 915 | 551;354;10 | 649;174;57;35 | 468;215;192;31;9 | 319;256;191;149 |
DXP2 | 915 | 551;354;10 | 649;174;57;35 | 468;407;31;9 | 447;319;149 |
Fig. 3 Phylogenetic tree from Bayesian analysis generated from the ITS-rRNA gene sequence dataset for D. destructor parental and F1 using the GTR+G model
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