CN114410655B - Application of BrMYC4-2 gene overexpression in plant growth - Google Patents
Application of BrMYC4-2 gene overexpression in plant growth Download PDFInfo
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- CN114410655B CN114410655B CN202210140105.1A CN202210140105A CN114410655B CN 114410655 B CN114410655 B CN 114410655B CN 202210140105 A CN202210140105 A CN 202210140105A CN 114410655 B CN114410655 B CN 114410655B
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Abstract
The invention discloses an application of BrMYC4-2 gene overexpression in promoting plant to delay flowering, wherein the BrMYC4-2 gene is numbered as BraA01g009470.3C, and the plant is Arabidopsis thaliana. The invention provides new gene resources for cabbage improvement breeding, thereby promoting the cabbage breeding process.
Description
The application is a divisional application of application number 2021106169329, application day 2021, month 06 and 03, and application of different copies of BrMYC2/3/4 genes in plant growth.
Technical Field
The invention relates to the technical field of plant genetic engineering, in particular to application of BrMYC4-2 gene overexpression in plant growth.
Background
The vegetables for Brassica (Brassica rapa ssp. Pekinensis) leaf belong to brassicaceae (Brassica) and are also called 'heading cabbage', 'Huang Yacai', have long cultivation history in China, are widely cultivated in various places, and are the vegetables for leaf with the largest cultivation area for Brassica of brassicaceae. The Chinese cabbage is various in variety, has the characteristics of low temperature resistance, crisp and tender taste and the like, and also contains rich mineral substances, carotenoid and thioglycoside. The Chinese cabbage contains rich thioglycoside, and the unique flavor and the disease and pest resistance, cancer prevention and anticancer and antioxidation of the important secondary metabolite thioglycoside and hydrolysate thereof are brought into the attention of a plurality of disciplines researchers such as botanic, medical science, biology, food and the like.
MYC2/3/4 transcription factors as important members in bHLH IIIe family play an important role in the activity of jasmonic acid mediated biological metabolism regulation, and the research on MYC2/3/4 transcription factor functions is mainly carried out on model plant Arabidopsis at present. Although the Chinese cabbage and the arabidopsis have common ancestral, the application of the defense function of the thioglycoside in the Chinese cabbage is affected to a certain extent due to the complexity of the heterotriploid genome of the Chinese cabbage and the arabidopsis, and the functional differentiation of the BrMYC2/3/4 in the growth and development of plants and the metabolism of the indolyl thioglycoside is necessary to be deeply known.
Disclosure of Invention
The invention aims to provide application of BrMYC4-2 gene overexpression in plant growth, so as to solve the defects in the prior art.
The invention adopts the following technical scheme:
application of BrMYC4-2 gene overexpression in delaying flowering of plants, wherein the BrMYC4-2 gene is numbered as BraA01g009470.3C, and the plants are Arabidopsis thaliana.
The invention has the beneficial effects that:
the invention finds that the BrMYC4-2 gene overexpression can be applied to promoting the plant to delay flowering, wherein the plant is Arabidopsis thaliana.
The invention provides new gene resources for cabbage improvement breeding, thereby promoting the cabbage breeding process.
Drawings
FIG. 1 shows the construction process of the plant expression vector pCAMBIA2302.
FIG. 2 shows the result of amplification and sequencing of the plant expression vector pCAMBIA2301 vector nptII; (A) pCAMBIA2301 vector nptII amplified sequencing DNA alignment; (B) The pCAMBIA2301 vector nptII amplified sequencing amino acid alignment.
FIG. 3 shows the cleavage assay of the plant expression vector pCAMBIA 2302; abbreviations: lane M, DNA marker; lane H, ddH 2 O。
FIG. 4 shows the results of plasmid sequencing alignment of plant expression vector pCAMBIA2302.
FIG. 5 shows the total RNA electrophoresis band of Chinese cabbage.
FIG. 6 is an analysis of PCR electrophoresis results of an over-expression vector; (a) a p2302MYC4-1 overexpression vector; the (B) over-expression vectors from left to right are: p2302MYC3-2, p2302MYC4-2, p2302MYC3-1, p2302MYC2; abbreviations: lane M, DNA marker; lane H, ddH 2 O。
FIG. 7 shows the result of PCR product sequencing of p2302MYC2/3/4 overexpressing vector into E.coli bacterial liquid.
FIG. 8 is T 3 Seed growth index of the generation BrMYC2/3/4 transgenic Arabidopsis strain; (a) phenotype of mature seed; (B) a phenotype of dissected mature horn fruit; (C) comparison of seed length; (D) comparison of seed widths; (E) comparison of thousand kernel weight; (F) comparison of seed numbers per silique; the transgenic lines tested were Ctrl, brMYC2, respectively OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The method comprises the steps of carrying out a first treatment on the surface of the Randomly selecting healthy and consistent seeds and siliques with the growth states of all genotypes, and photographing under the same condition; data are shown as mean ± SD from three independent biological replicates; statistical analysis using analysis of variance followed by Tukey's multiple comparison test (p<0.05 A) is provided; scale bar = 500 μm.
FIG. 9 is T 3 The total weight and thousand seed weight of individual seeds of the generation BrMYC2/3/4 transgenic Arabidopsis strain.
FIG. 10 is T 3 Root and hypocotyl length of the generation BrMYC2/3/4 transgenic Arabidopsis lines; (a) phenotype of 6 day old seedlings; (B) comparison of root lengths; (C) comparison of hypocotyl length; the transgenic lines are Ctrl and BrMYC2 respectively OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The method comprises the steps of carrying out a first treatment on the surface of the Data are shown as mean ± SD from three independent biological replicates; statistical analysis using analysis of variance followed by Tukey's multiple comparison test (p<0.05 A) is provided; scale bar = 1cm.
FIG. 11 is T 3 The transformation time difference of the nutritional stage of the transgenic arabidopsis strain of the generation BrMYC 2/3/4; (a) a28 day old transgenic arabidopsis phenotype; (B) Leaf phenotype, numerically shown is the first leaf rosette She Shewei with epidermal hair present; (C) The leaf growth rate of transgenic Arabidopsis within a short period of time; counting the leaf numbers on 12, 16, 20, 24 and 28 days after planting; the transgenic lines are Ctrl and BrMYC2 respectively OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The method comprises the steps of carrying out a first treatment on the surface of the Data are shown as mean ± SD from three independent biological replicates; statistical analysis using analysis of variance followed by Tukey's multiple comparison test (p<0.05 A) is provided; scale bar = 1cm.
FIG. 12 is T 3 Plant height and flowering time of the generation BrMYC2/3/4 transgenic Arabidopsis strain; (a) phenotype of arabidopsis thaliana for 3 weeks; (B) bolting time; (C) the number of rosette leaves during bolting; (D) phenotype of 7 week old arabidopsis; (E) plant height; (F) number of branches; the transgenic lines are Ctrl and BrMYC2 respectively OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The method comprises the steps of carrying out a first treatment on the surface of the Data are shown as mean ± SD from three independent biological replicates; statistical analysis using analysis of variance followed by Tukey's multiple comparison test (p<0.05 A) is provided; scale bar = 1cm.
FIG. 13 is T 3 The inhibition of the growth of sclerotinia by the lyophilized powder of the rosette leaves of the transgenic BrMYC2/3/4 arabidopsis strain on PDA; the following are respectively from left to right: ddH 2 O,Ctrl、BrMYC2 OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The method comprises the steps of carrying out a first treatment on the surface of the Placing a sclerotinia in the center of each culture dish; sclerotinia sclerotiorum mycelium is white cotton mycelium plaque; scale bar = 1cm.
Detailed Description
The invention will be further explained with reference to examples and figures. The following examples are only illustrative of the present invention and are not intended to limit the scope of the invention.
Construction of 1BrMYC2/3/4 overexpression vector
1.1 test materials
1.1.1 plant Material
The chinese cabbage used in this study was 'Chiifu' (the laboratory strain of interest in the engineering study of quality improvement of agricultural products in Zhejiang province). Plants are planted in the illumination culture room of the laboratory, and the growth condition is that the light intensity is 600 mu mol.m -2 ·s -1 Photoperiod 16h light/8 h darkness, humidity 65%The temperature is 16h 28 ℃/8h 20 ℃.
1.1.2 vectors and strains
Plasmid vectors used in this study were pCAMBIA2301, pCAMBIA1302, pCAMBIA2302. Wherein the plasmids pCAMBIA2301 and pCAMBIA1302 are vectors for constructing pCAMBIA2302 and are preserved by the laboratory.
The sclerotinia sclerotiorum (Sclerotinia Sclerotiorum) strain is given away by a teacher Shi Haojie at the university of agriculture and forestry, zhejiang.
1.1.3 preparation of solutions and Medium
CTAB extract: CTAB 20g (2% W/V), PVP40 g (2% W/V), naCl 55.84g (58.44 g. Mol) -1 ) 1M Tris-HCl 100mL (pH 8.0), 0.5M EDTA 40mL (pH 8.0), distilled water to a volume of 1L. When in use, 1 mu L of beta-mercaptoethanol is added into 1mL of the extracting solution.
1L 1M Tris-HCl (pH 8.0): 121.1g Tris was weighed into a 1L beaker, added with about 800mL deionized water, and stirred well. After dissolution, a proper amount of HCL is added to the required pH value, and the volume is fixed to 1L.
100ml of 0.5m EDTA (ph=8.0): 18.612g of EDTA was weighed, dissolved in deionized water, naOH particles (about 2.0 g) were added while dissolving, the volume was set to 100mL after complete dissolution, and the pH was adjusted to 8.0.
100mL 50mg·mL -1 Kanamycin (Kanamycin, kana): 5g Kana was weighed out in 100ml of LddH 2 And O, filtering and sterilizing after complete dissolution, and sub-packaging and storing at-20 ℃.
20mL 50mg·mL -1 Gentamicin (Gentamicin, gen): 1g Gen was weighed out in 20mL ddH 2 And O, filtering and sterilizing after complete dissolution, and sub-packaging and storing at-20 ℃.
20mL 50mg·mL -1 Rifampin (Rif): 1g of Rif is weighed and dissolved in 20mL of DMSO, and after complete dissolution, filtration sterilization and subpackaging preservation at-20 ℃.
LB solid medium: peptone (Tryptone) 10 g.L -1 ,NaCl 10g·L -1 Yeast extract (Yeast extract) 5 g.L -1 Agar 8 g.L -1 And sterilizing with steam at 121deg.C for 20min at pH 7.0.
LB liquid medium: tryptone 10 g.L -1 ,NaCl 10g·L -1 ,Yeast extract 5g·L -1 And sterilizing with steam at 121deg.C for 20min at pH 7.0.
20mL agarose electrophoresis gel: 0.24G of Agarose G-50 was weighed and 20mL of 1 XTAE was added, and after boiling in a microwave oven, 1. Mu.l of Gelstein dye was added when it cooled to a temperature at which the back of the hand was not scalded.
1.1.4 primer Synthesis and sequencing analysis
Primer synthesis and sequencing analysis were performed by Zhejiang have biotechnology limited.
1.1.5 software and data analysis
Primer design software is Primer 5.0; the sequence analysis software is DNAMAN 6.0 and SnapGene v5.0.5; the picture processing software is Photoshop CS6 and Power Point 2019.
1.2 test methods
1.2.1BrMYC2/3/4 Gene sequence and acquisition of its coding sequence
BrMYC3-1 and BrMYC3-2, brMYC4-1 and BrMYC4-2 are BrMYC2 paralogs. The gene numbers BrMYC2/3/4, braa05g023930.3C (BrMYC 2), braa09g022310.3C (BrMYC 3-1), braa06g0410190.3C (BrMYC 3-2), braa01g009460.3C (BrMYC 4-1), braa01g009470.3C (BrMYC 4-2) and Braa08g000150.3C (BrMYC 4-3), were obtained from the Brassicadatabase Annotations (http:// brassicrdb.cn/#/Annomons /) database. The coding sequence was obtained from the Brassica database gene sequence (http:// brasicadb. Cn/#/GeneSequence) database.
1.2.2 reconstitution of pCAMBIA2302 vector
Plasmids of pCAMBIA2301 and pCAMBIA1302 were extracted, respectively. By usingHS DNAPolymerase v201 the pCAMBIA2301 plasmid nptII gene was amplified; the amplification primer of the nptII gene is p2301 nptII RC-f: TACAAATCTATCTCTCTCGAGATGGGGATTGAACAAGATG; p2301 nptII RC-r: ATTATTATGGAGAAACTCGAGCTTGTCGATCGACTCTAGC (tm=47℃). The PCR reaction described aboveThe procedure is: 98℃for 10s,47℃for 5s and 72℃for 1min, 30cycles in total. The pCAMBIA1302 plasmid was digested with XhoI to give a linearized cloning vector. Insert amplification product and linearized cloning vector were each subjected to agarose gel electrophoresis at 2 μl to examine amplification yield and specificity, and if the PCR product electrophoresis band was single and of correct size, gel recovery was performed as provided by TaKaRa MiniBEST Agarose Gel DNA Extraction Kit ver.4.0: agarose gel containing insert amplification product and linearization cloning vector is cut under ultraviolet lamp into 1.5mL centrifuge tube, 4 Buffer GM with gel volume is added, after uniform mixing, centrifuge tube is placed in 37 ℃ metal bath to make gel fully dissolved. Transferring the solution to Spin Column, centrifuging for 1min at 12,000pm, and discarding the filtrate; this step was repeated 2 times to improve the DNA recovery. mu.L of DNA Buffer WB was added, centrifuged at 12,000pm at room temperature for 30s, the filtrate was discarded, and this step was repeated once. Air-free for 2min, transfer Spin Column to fresh 1.5mL centrifuge tube, add 30. Mu.L ddH 2 0, standing at room temperature for 2min, and centrifuging at 12,000pm for 1min to obtain purified product (which can be stored at-20deg.C).
Then adoptII One Step Cloning Kit the kit performs homologous recombination to construct a plant expression vector pCAMBIA2302 (FIG. 1). The recombinant product was transformed into DH 5. Alpha. By the following method: 20. Mu.L of the cooled reaction solution was added to 50. Mu.L of the thawed competent cells on ice, and the mixture was stirred well under the wall number of the flick tube and allowed to stand on ice for 30min. The metal bath is heated for 45s at the temperature of 42 ℃, and is quickly transferred to an ice water bath for incubation for 2min. To the centrifuge tube, 1mL of liquid LB medium containing no antibiotic was added, and resuscitated at 37℃for 60min at 200 rpm. 100 mu L of recovery liquid is uniformly coated on a substrate containing 50 mg.L -1 The kana was cultured in LB solid medium at 37℃for 12 hours in an inverted manner. Several single colonies on the recombinant product transformation plates were picked and cultured overnight in LB liquid medium containing the same concentration of kana for colony PCR identification. Identification of pCAMBIA2302 was performed by amplified npt II gene, sequencing and colony PCR primers p2302 npt II-f: CTTCGCAAGACCTTCCTCTA; p2302 nptII-r; CTGGGAACTACTCACACATT (tm=50℃). The PCR reaction procedure was as follows: 94 ℃ for 3min;94 ℃ 3min,50 ℃ for 30s and 72 ℃ for 1min, and total 35cycles; and at 72℃for 10min. A blank (no template DNA) was also placed. Colonies identified as positive by colony PCR were selected, and bacterial solutions were subjected to first-generation sequencing. After the sequencing result is correct, plasmid pCAMBIA2302 is introduced into GV3101 competent cells by adopting a freeze thawing method, and the specific transformation steps are as follows:
(1) The GV3101 Agrobacterium competence preserved at-80 ℃ is taken and naturally thawed on ice.
(2) 1 μg of recombinant plasmid DNA (preferably, the volume should not exceed 10 μl) is added per 100 μl, the tube wall is flicked, and the mixture is respectively placed on ice for 5min, liquid nitrogen for 5min, water bath at 37deg.C for 5min, and ice bath for 5min.
(4) 1mL of liquid LB medium without antibiotics was added, and the culture was shake-cultured on a shaker at 28℃and 200rpm for 3 hours.
(5) The cells were collected by centrifugation at 6000rpm for 1min, 100. Mu.L of supernatant was left, and the pellet was resuspended by gentle pipetting with a pipette. The resulting mixture was spread on an LB plate containing kana and placed upside down in an incubator at 28℃for 48 hours.
(6) Single colony was picked up and inoculated into liquid LB medium (containing 50 mg.L) -1 Gen、50mg·L -1 Rif and 50 mg.L -1 Kana), 28 ℃,200rpm shaking culture for 48 hours, and using the bacterial liquid for bacterial liquid PCR identification, and preserving the bacterial with positive results at-20 ℃.1 single colony of transformation was randomly picked for plasmid sequencing analysis.
1.2.3 BrMYC2/3/4 transcription factor coding region clone
1.2.3.1 extraction of total RNA from cabbage and cDNA Synthesis
Selecting 'Chiifu' wild cabbage seedlings with good growth state, and selecting fifth functional leaves (fifth leaves from top to bottom) of each plant as RNA extraction materials when the seedlings grow to five leaves and one core period. The Trizol method is adopted to extract plant genome RNA, and the specific method is as follows:
(1) Test materials were prepared. Wrapping a mortar, a grinding rod, a medicine spoon and the like with tinfoil paper in advance, sterilizing at high temperature, and drying at 180 ℃ for 12 hours; treating large, medium and small gun heads and 2mL centrifugal tubes with DEPC water and drying at 72 ℃ overnight; 75% ethanol was prepared with DEPC deionized water, pre-chilled chloroform, isopropanol and Total RNA Extractor.
(2) 100mg of fresh sample was taken and thoroughly ground in liquid nitrogen to give abrasive particles, and at least three times of liquid nitrogen grinding was performed to ensure leaf cell disruption. Adding a proper amount of Total RNA Extractor, placing the homogenate into a 2mL centrifuge tube of a homogenate separator, standing the homogenate at room temperature for 5min, and centrifuging at 12,000rpm and 4 ℃ for 5min to completely separate the nucleoprotein from the nucleic acid.
(3) The supernatant was transferred to a new 2mL centrifuge tube. 0.2mL of chloroform was added, and the mixture was vortexed for 15s and left at room temperature for 3min. Centrifuge at 12,000rpm 4℃for 10min.
(4) The upper aqueous phase is sucked and transferred into a clean centrifuge tube, added with isopropyl alcohol with equal volume, evenly mixed and placed for 20min at room temperature.
(5) Centrifuge at 12,000rpm at 4℃for 10min, discard supernatant.
(6) The precipitate was washed with 1mL of 75% ethanol in DEPC treated water. Centrifuge at 12,000rpm at 4℃for 3min, discard supernatant. Drying at room temperature for 5min.
(7) 30. Mu.L of RNase-free ddH was added 2 O, dissolve RNA sufficiently. The concentration and purity of the RNA are detected, and the ratio of the purity A260/A280 of the RNA is 1.8-2.1. Then, 2. Mu.L of the sample was subjected to agarose gel electrophoresis. After detection, the resulting RNA solution was stored at-80℃or used for subsequent experiments. DNA digestion and cDNA Synthesis Using PrimeScript TM II 1st Strand cDNA Synthesis Kit kit, reverse transcription reaction system is shown in Table 1:
TABLE 1 reverse transcription reaction system
After mixing with a pipette, the mixture was incubated at 65℃for 5 minutes, cooled on ice for 2 minutes, and then the following mixture was prepared from the above reaction solution (Table 2).
TABLE 2
The samples were slowly mixed with a pipette and subjected to PCR reverse transcription.
The PCR reaction procedure was as follows: 45 ℃ for 60min and 95 ℃ for 5min. After the reaction is finished, the mixture is immediately placed on ice for cooling, and the product obtained by RT-PCR amplification is placed at the temperature of minus 20 ℃ for preservation or used for subsequent experiments.
1.2.3.2 cabbage DNA extraction
The CTAB method is adopted to extract the plant genome DNA, and the selection of DNA extraction materials is 1.2.3.1. The specific method comprises the following steps:
(1) After cleaning and airing the leaves, 0.2g of the leaves are put into a 1.5mL centrifuge tube, ground by liquid nitrogen, added with 700 mu L of 2% CTAB preheated at 65 ℃ and uniformly mixed, and subjected to water bath at 65 ℃ for 1h, and gently shaken every 10min.
(2) Taking out the centrifuge tube, cooling to room temperature, adding 650 mu L of 24:1 chloroform isoamyl alcohol solution, reversing and mixing uniformly, and standing for 10min.
(3) Centrifuging at 13000rpm for 10min, collecting supernatant, adding 550 μl of 24:1 chloroform isoamyl alcohol solution, mixing, and standing for 10min.
(4) Centrifuging at 13000rpm for 10min, collecting supernatant, adding 400 μl of isopropanol in ice bath, and preserving at-20deg.C for 20min.
(5) Centrifuging at 13000rpm for 10min, discarding supernatant, adding 500 μL 80% ethanol into the rest precipitate, cleaning twice (sucking and beating, mixing), and blow drying with a clean bench.
(6) Before use, 30. Mu.L ddH was added to the dried precipitate 2 O is dissolved, and the mixture is kept stand for 5min at room temperature, sucked and evenly mixed by a pipetting gun and then kept stand for 5min.
(7) 1.5 mu L of the sample is absorbed for detecting the concentration and purity of DNA, and 2 mu L of the sample is taken for detecting agarose gel electrophoresis. After detection, the resulting DNA solution was stored at-20℃for subsequent testing.
1.2.3.3 primer design and Synthesis
Primer 5.0 was used for Primer design. Finally, the primers were synthesized by Zhejiang have kang Biotechnology Co. The primer design is shown in Table 3.
TABLE 3 Gene cloning primer design
1.2.3.4 PCR amplification of the insert and acquisition of linearization vectors
The insert was amplified with high fidelity KOD enzyme using plant genomic DNA or cDNA obtained by reverse transcription as an amplification template, and the PCR amplification reaction system was as shown in table 4:
TABLE 4 PCR amplification reaction System
The PCR procedure was set as follows: 94 ℃ for 3min;98 ℃ for 10 seconds, 52 ℃ for 30 seconds and 68 ℃ for 2 minutes, 40cycles total; and at 68℃for 10min. The PCAMBIA2302 plasmid was digested with NcoI to obtain a linearized cloning vector. Agarose gel electrophoresis was performed on the insert amplification product and linearized cloning vector to verify amplification yield and specificity, and if the PCR product electrophoresis band was single and of the correct size, gel recovery was performed as provided by TaKaRa MiniBEST Agarose Gel DNA Extraction Kit ver.4.0.
1.2.4 Construction of p2302MYC over-expression vector
The over-expression vector is adoptedII One Step Cloning Kit homologous recombination method, reaction system is shown in Table 5:
TABLE 5 homologous recombination System
After the system is prepared, the components are sucked and stirred uniformly. After 30min of reaction at 37 ℃, the reaction tube was immediately cooled in an ice bath for 5min. 20 mu L of each gene cooling reaction liquid is respectively transformed into a proper amount of DH5 alpha by a heat shock method. The positive clones were picked for colony PCR verification and agarose gel electrophoresis detection after overnight incubation at 37 ℃.
The verification primer is p2302MYC-f: TCCCACTATCCTTCGCAAGA; p2302MYC-r: GAATTGGGACAACTCCAGTG (tm=52℃). And performing first-generation sequencing on the PCR product, and extracting the competence of GV3101 transformed by the over-expression vector plasmid freeze thawing method of each gene if the sequencing result is correct.
1.3 results and analysis
1.3.1 Construction and identification of pCAMBIA2302 plant expression vector
The results of the sequence analysis of the amplified pCAMBIA2301 nptII gene are shown in FIG. 2. After homologous recombination, the products of transformation of E.coli with plasmid pCAMBIA2302 were detected by digestion with lanes 1-13 as 13 single colonies randomly picked, a 982bp fragment was excised at the time of digestion, and ddH was added to the control (lane H) 2 O. The gel electrophoresis results were in agreement with the expectations (fig. 3). The pCMABIA2302 plasmid was transformed into Agrobacterium, and the monoclonal activation was picked and the plasmid sequencing comparison results were shown in FIG. 4. The construction of the pCAMBIA2302 plant expression vector was successful, the GUS gene of the vector was successfully replaced by the GDP gene, and the T-DNA segment contained only the nptII gene.
1.3.2 obtaining of the target Gene of cabbage and amplification of the target Gene
And (3) immediately performing agarose gel electrophoresis detection on the cabbage RNA extracted by the Trizol method, wherein three bands are formed in the detection result, the bands are 5s, 18s and 28s from bottom to top, the 18s band brightness is about 1/2 times of the 28s band brightness, and the RNA band is bright and clear. The nucleic acid molecule contains base to make the nucleic acid have maximum absorption at 260nm, and the average concentration of RNA extracted at this time is 2367.1 ng. Mu.L measured by a Nanodrop2000 nucleic acid analyzer -1 A value of 1.98 for A260/A280 and 2.21 for A260/A230 indicated good sample purity (FIG. 5). And (3) performing cDNA reverse transcription according to the measured RNA concentration, and simultaneously performing agarose gel electrophoresis detection on the genomic DNA and cDNA of the Chinese cabbage extracted by the CTAB method, so that the band size is correct, and the obtained BrMYC2/3/4 gene fragment can be recombined with the pCAMBIA2302 linear vector.
1.3.3 Construction and identification of p2302MYC over-expression vector
The amplified product is transferred into escherichia coli after being constructed into pCAMBIA2302 vector, and monoclonal is selected for colony PCR identification, and the electrophoresis band is consistent with the position of the target gene band and has higher brightness, thus the positive colony can be preliminarily judged. The target band sizes for MYC2, MYC3-1, MYC3-2, MYC4-1 and MYC4-2 amplifications were 1860bp, 1734bp, 1785bp, 1317bp and 936bp, respectively (FIG. 6). Whereas BrMYC4-3 was only 163bp, and therefore was not amplified. And then sending the target band PCR product to a company for sequence alignment. Colony PCR and sequencing results were as expected (FIG. 7), and plasmid-transformed Agrobacterium was extracted.
Acquisition and functional verification of 2 BrMYC2/3/4 overexpressed transgenic Arabidopsis thaliana
2.1 test materials
2.1.1 plant Material
The genetic transformation of heterologous expression vectors used in this study was Columbia ecological Arabidopsis. The plant planting condition is the same as 1.1.1.
2.1.2 test strains
Agrobacterium transformed with the 1.2.4 constructed p2302MYC2/3/4 overexpression vector.
2.1.3 preparation of solutions and Medium
MS suspension: 1/4MS+6% sucrose+ddH 2 O+0.02%silwet+L-77
100mL of 1M mannitol: 18.217g mannitol is dissolved in 100mL ddH 2 O, heating and dissolving at 25 ℃.
20mL 5mM Sinigrin:41.548mg of the extract is dissolved in 20mL of water after ultrasonic treatment, and the extract is packaged and stored at-20 ℃.
100mL DEAE Sephadex A25:2.5g DEAE Sephadex A25+200mL decocting in distilled water for 2 hr, and packaging at 4deg.C.
25mL SiO 2 :1g SiO 2 +25mL distilled water.
20mL of 0.1% sulfatase: 0.02g sulfatase+20 mL distilled water, and subpackaging and preserving at-20 ℃.
The preparation of the rest solution and the culture medium is 1.1.3.
2.2 test methods
2.2.1 floral transformation and screening of Arabidopsis thaliana
And selecting a robust 5-w-old arabidopsis thaliana individual plant growing a plurality of inflorescences for inflorescence infection. The over-expression carrier agrobacterium needs to be activated in advance, liquid LB with target strain is centrifuged to obtain bacterial blocks, and MS suspension is utilizedAfter resuspension, the solution OD 600 Approximately 0.8, the suspension is poured into a measuring cylinder of suitable format to prepare an arabidopsis infestation. The method comprises the following steps:
(1) The arabidopsis seed pod and the fully opened flower bud were removed.
(2) The fresh-keeping film wraps the Arabidopsis hole basin to prevent the substrate from leaking out when the back-off infection occurs.
(3) The bracteated arabidopsis inflorescences are inserted into the bacterial suspension, infected for 60s, and all inflorescences must be immersed in the suspension.
(4) After the infection is finished, absorbing excessive bacterial liquid on the arabidopsis thaliana flower bolts, putting the arabidopsis thaliana into a clean cave dish which is paved with newspapers and wet in advance, covering a transparent tray cover and drying the newspapers, and placing the dried newspapers in a dark shade place for 24 hours for infection.
(5) The fresh-keeping film is removed the next day, the infected arabidopsis thaliana is righted and placed in a climatic chamber or a climatic chamber (the plants are not required to be placed at high temperature or under strong illumination, so that the death caused by burning is avoided).
(6) If Arabidopsis grows well, infection is 2 nd time after one week (repeating the above steps).
(7) The soil is kept moist before the fruit clips are ripe and fall, and watering is kept under the principle of dry and wet.
(8) And (5) harvesting the seeds of the single plant, and marking.
2.2.2 molecular detection and screening of transgenic Arabidopsis plants
(1) PCR detection of transgenic Arabidopsis thaliana. The rosette leaves of positive plants p2302MYC2/3/4 and pCAMBIA2302 are used as materials for DNA extraction, and PCR positive detection is carried out by using detection primers p2302 npt II-f and p2302 npt II-r (same as 1.2.2) of a marker gene npt II in a pCAMBIA2302 vector.
(2) In the presence of Kana, according to T 2 And (3) line: 1 separation ratio, at T 3 Homozygous plants with single copy transgene inserts were selected for generation. Harvesting from T 3 Leaf samples of transgenic plants were frozen in liquid nitrogen and stored at-80 ℃ until later use. Three independent biological replicates were used for each trial.
2.2.3 evaluation of yield of overexpressing transgenic Arabidopsis seeds
To determine seed yield, T from each genotype 3 Thirty plants were extracted from the lines. After the pod matures, the first five incompletely developed pods are removed from the main inflorescence axis. The first complete fruit is then used to evaluate the seed number for each fruit. Mature cones were laid on A4 paper and the pericarp wall was removed with a dissecting needle, then photographed with a Leica stereo microscope (MZ 16FA, leica, germany) to calculate the seed number for each cone. The remaining cones were ripened and seeds were selected from cones on the basis of the main inflorescence for observation. Approximately 2,000 mature seeds were randomly selected from the p2302MYC2/3/4 and pCAMBIA2302 transgenic lines, observed and photographed using a Leica stereo microscope. The length and width of the seeds were estimated using ImageJ software (ImageJ, 1.47v,NIH,Bethesda,USA). The seed weight was measured using an electronic scale. Data represent the average of three biological replicates.
2.2.4 assessment of the growth stage of transgenic Arabidopsis plants overexpressing
To evaluate the differences in growth phase transition between the different genotypes of overexpressed Arabidopsis, one was derived from each T 3 About 30 seedlings were randomly selected from the line, transplanted into sterilized turfy soil and vermiculite (1:1) matrix, and grown in a greenhouse for about 2-3 weeks. To assess whether seedlings have reached maturity, leaf back surface coat was observed using a Leica stereo microscope and appearance of coat was scored as a sign of vegetative growth phase transition time. For blade shape analysis, the fully developed blade was removed, stuck to cardboard with double-sided tape, flattened with clear tape, and then scanned using an Epson V700 Professional scanner (Epson, suwa, japan). Recording the bolting time and the number of rosette leaves during bolting to determine the flowering time of the arabidopsis. After flowering, the plant height and the number of branches are determined. Photographs were taken of plants near the scale used to calibrate ImageJ software to accurately measure distance. The maximum height (from the growth point to the highest tip, as indicated by the vertical line) was estimated from the contours of the different sizes of arabidopsis thaliana. All measurements were performed in triplicate with independent biological replicates.
2.2.5 determination of the content of the transgenic Arabidopsis thaliana thio-glycoside
Homozygous T of transgenic Arabidopsis lines 3 The rosette leaves of the generation seedlings are used for measuring the content of the thioglycoside. HPLC analysis was performed using an Agilent1200 system (Agilent Technologies, inc., santa Clara, USA) and a C18 reverse phase column (250X 4mm,5 μm, bischoff, germany). At a rate of 1 mL.min within 60min -1 The chromatographic analysis was performed in the following order: 100% H 2 O (2 min), linear gradient of 0% -20% acn (32 min), 20% acn (6 min), then 20% -100% acn (5 min) and 0% acn, then the next sample. The eluate was monitored at 229nm with a UV detector. Identifying each component of the measured thioglycoside according to the peak-out time of the liquid chromatogram, calculating the content according to the content of the internal standard sinigrin and the corresponding response factor, and determining the micromoles (mu mol g) of the thioglycoside in each gram of dry weight -1 DW) is a unit. The experiment was performed in three biological replicates and three technical replicates, and the data was analyzed using SPSS software.
2.2.6 overexpression transgenic Arabidopsis antifungal Activity bioassay
The lyophilized leaf powder of each transgenic arabidopsis strain was used to study the effect of different sulfan compositions and contents on visible growth of sclerotinia. Sclerotinia sclerotiorum (Sclerotinia sclerotiorum) was stored at 4℃and then re-activated in a petri dish containing Potato Dextrose Agar (PDA) medium (Becton Dickinson, columbia, md.). Mycelia were inoculated into the center with a 5mm punch. The dishes were then incubated at 22 ℃ for 72h to provide actively growing mycelium for subsequent experiments. The edge of hypha in PDA medium was cut out with a puncher and cultivated for 72 hours to obtain an agar screen with sclerotinia growing uniformly with a diameter of 5 mm. The agar screen was placed in the center of the new PDA medium surface, and then 3 filter paper discs 10mm in diameter were placed evenly on the edge of the PDA medium. Each filter paper disc received only 25mg of lyophilized powder and 100. Mu.L of ddH 2 O, 100. Mu.L ddH 2 O served as a control. After incubating the dishes containing sclerotinia and lyophilized powder at 22℃for 72 hours, growth of sclerotinia was assessed by observing the growth of the hyphae and the number of sclerotium per dish. The test was performed in three biological replicates and three techniquesAnd (5) repeating.
2.3 results and analysis
2.3.1 Effect of over-expression of BrMYC2/3/4 on Arabidopsis seed yield
BrMYC2/3/4 overexpressing transgenic Arabidopsis thaliana (designated BrMYC2, respectively) was analyzed OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE And BrMYC4-2 OE ) And empty vector pCAMBIA2302 as a control, seed yield of transgenic arabidopsis (designated Ctrl) plants, including seed size (length and width), thousand kernel weight, number of seeds per pod and total weight of individual seeds. To minimize the impact of environmental factors on seed development, all plants were maintained under the same growth conditions, including temperature, light, moisture and nutrition. As shown in fig. 8 and 9, there was a significant difference in seed yield for the different transgenic plants. BrMYC2 OE The seed length of the strain is minimal; brMYC2 OE ,BrMYC3-2 OE And BrMYC4-1 OE Between BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE Between, and BrMYC4-1 OE 、BrMYC4-2 OE And BrMYC3-1 OE There was no significant difference in seed length between, all of which were significantly smaller than the control (fig. 8C). BrMYC3-2 OE And BrMYC4-1 OE The strain has minimal seed width, followed by BrMYC4-2 OE 、BrMYC2 OE 、BrMYC3-1 OE 、Ctrl,BrMYC3-2 OE 、BrMYC4-1 OE And BrMYC4-2 OE Between and BrMYC4-2 OE 、BrMYC2 OE And BrMYC3-1 OE Between and BrMYC3-1 OE There was no significant difference from the control (fig. 8D). Thousand kernel weights were significantly reduced for all transgenic lines compared to the control (fig. 8E). BrMYC2 OE The thousand seed weight of the strain is minimum, and BrMYC3-2 is the next thing OE ,BrMYC4-1 OE ,BrMYC4-2 OE And BrMYC3-1 OE 。BrMYC3-1 OE The thousand seed weight of the seeds is slightly higher than that of BrMYC3-2 OE And BrMYC4-1 OE Whereas BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE Seed thousand seed weight of BrMYC4-2 OE And BrMYC3-1 OE The thousand seed weight of seeds is not in betweenSignificant differences. BrMYC2 OE The number of seeds of single pod of the strain was minimal, while the number of seeds of single pod of all other transgenic strains was significantly higher than the control (fig. 8B and 8F). Transgenic BrMYC4-1 OE The number of seeds of single cone of the strain is the largest, and the BrMYC3-2 is the next OE ,BrMYC3-1 OE ,BrMYC4-2 OE . As shown in FIG. 9, brMYC2 OE The total weight of single seed of the strain is highest, and BrMYC3-2 is the next OE 、BrMYC4-1 OE 。BrMYC2 OE 、BrMYC3-2 OE 、BrMYC4-1 OE All higher than the control. BrMYC4-2 OE There was no significant difference from the control, brMYC3-1 OE Significantly lower than the control.
2.3.2 Effect of over-expression of BrMYC2/3/4 on Arabidopsis plant development
To determine whether BrMYC2/3/4 expression affected vegetative growth and reproductive development, phenotypes of BrMYC2/3/4 overexpressing transgenic Arabidopsis plants were observed and analyzed at the Arabidopsis seedling and bolting stage (FIGS. 10-12).
In the young vegetative stage, we studied the root and hypocotyl lengths of seedlings. There were significant differences in root and hypocotyl lengths between control and transgenic plants (fig. 10). BrMYC2 OE The strain showed the shortest root length, followed by BrMYC3-1 OE ,BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE (FIG. 10B). BrMYC2 OE And BrMYC3-1 OE The root length of the strain is shorter than that of the control. Although BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE There was no significant difference between the lines, but their root length was significantly increased over the control. Transgenic BrMYC2 OE The hypocotyl length of (C) is also the shortest, followed by BrMYC3-1 OE ,BrMYC4-2 OE ,BrMYC4-1 OE And BrMYC3-2 OE (FIG. 10C). BrMYC2 OE Is shorter than the control, while BrMYC3-1 OE ,BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE Is longer than the control. Thus, brMYC2 OE And BrMYC3-1 OE Is inhibited by expression of BrMYC3-2 in Arabidopsis thaliana OE 、BrMYC4-1 OE 、BrMYC4-2 OE Expression of (c) promotes mimeticRoot elongation in arabidopsis thaliana. BrMYC2 OE Is inhibited by expression of BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE The expression of (2) promotes the elongation of the hypocotyl of Arabidopsis thaliana.
About 3-4 weeks after seed sowing, arabidopsis seedlings transition from the juvenile period to the adult vegetative growth period (fig. 11). Leaves of the transgenic plants were normal in shape and were not distinguished from control leaves. Compared with the control, brMYC2 OE 、BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE Over-expressing transgenic plants produced low leaf position of the first leaf with coat, whereas BrMYC4-2 OE There was no significant difference from the control (fig. 11B). For leaf growth rate, brMYC2 OE 、BrMYC3-1 OE 、BrMYC4-1 OE 、BrMYC4-2 OE Significantly faster than the control, but BrMYC3-2 OE Similar to the control (fig. 11C).
As for the reproductive phase, we studied the bolting time, the number of rosette leaves, plant height and tillering number in the bolting phase (FIG. 12). BrMYC2 OE The bolting time of (2) is obviously faster, and BrMYC3-2 OE And BrMYC4-2 OE The bolting time of the corn is slower than that of the control. BrMYC3-1 OE And BrMYC4-1 OE The bolting times of (a) are similar to those of the control (fig. 12A and 12B). Compared with the control, brMYC2 OE 、BrMYC3-1 OE 、BrMYC4-1 OE The number of rosette leaves is obviously reduced when the over-expression transgenic plant is bolting, while BrMYC3-2 OE 、BrMYC4-2 OE Then it is added (fig. 12A and 12C). The number of rosette leaves during bolting can be used as a judging basis of flowering time, and the rosette leaves of late flowering plants are more. Thus, in Arabidopsis, brMYC2 OE ,BrMYC3-1 OE And BrMYC4-1 OE Heterologous overexpression of (A) promotes early flowering time, whereas BrMYC3-2 OE And BrMYC4-2 OE The heterologous overexpression of (2) promotes the delay of flowering time of Arabidopsis thaliana. In terms of plant height, compared to control, brMYC2 OE Is significantly increased, while BrMYC3-2 OE ,BrMYC4-1 OE And BrMYC4-2 OE Significantly reduced. Moreover, brMYC3-2 OE And BrMYC4-2 OE To therebetween toBrMYC3-1 OE There was no significant difference from the control (fig. 12A and 12E). BrMYC2 OE And BrMYC3-1 OE The number of branches of (a) is significantly higher than that of the control, while BrMYC3-2 OE ,BrMYC4-1 OE ,BrMYC4-2 OE There was no significant difference from the control (fig. 12A and 12F).
2.3.3 analysis of the content of overexpressed transgenic Arabidopsis thaliana thioglycosides
To study the effect of heterologous overexpression of BrMYC2/3/4 on the metabolism of thioglycoside, T was determined using HPLC 3 The variety and content of the thioglycoside in the plant leaf. The levels of most short and long chain aliphatic and indolyl thioglycosides were significantly increased for the transgenic lines compared to the control (table 6). Glucoiberin (GBR) derived from homomethionine is found in BrMYC2 OE The strain was increased by 2.5 times. BrMYC2 OE In the strain, aliphatic thioglycosides Glucoerucin (GEC) and Glucoraphanin (GRN) derived from dihomo methionine were increased 3.0-fold and 2.1-fold, respectively. Glucoalyssin (GAS) from Tri-high methionine in BrMYC2 OE The strain was increased by 2.2 times. Glucohirsutin (GHT) derived from pentamethine is found in BrMYC2 OE Is increased by 3.9 times, and is added in BrMYC3-1 OE Is increased by 1.9 times, and is added in BrMYC4-1 OE Is increased by 1.8 times. BrMYC2 OE Indolyl thioglycosides, such as GBC,4MeGBC and NeoGBC, are increased 1.5-fold, 8.7-fold and 3-fold, respectively. BrMYC3-1 OE 4.6-fold increase in 4 MeGBC. In BrMYC3-1 OE 、BrMYC3-2 OE 、BrMYC4-1 OE 、BrMYC4-2 OE NeoGBC is increased 2.8-fold, 1.8-fold, 2.6-fold and 2.0-fold, respectively, in overexpressed transgenic Arabidopsis thaliana. As shown in Table 7, in BrMYC2 OE 、BrMYC3-1 OE 、BrMYC4-1 OE In the over-expressed transgenic arabidopsis, the aliphatic thioglycoside is increased by 2.9,1.7 and 1.6 times respectively. At BrMYC2 OE 、BrMYC3-1 OE In the transgenic arabidopsis, the indolyl thioglycoside is increased by 4.6 times and 2.9 times respectively. At BrMYC2 OE 、BrMYC3-1 OE 、BrMYC4-1 OE In the over-expressed transgenic arabidopsis, total GS was increased 3.0-fold, 1.7-fold and 1.6-fold, respectively. Thus, brMYC4-2 was removed OE In addition, most of the aliphatic and indolyl thioglycosides in all strainsIs significantly increased.
TABLE 6 Individual sulfan GS content (mu mol g) -1 DW)
Note that: data represent mean ± standard deviation of triplicate samples. Statistical analysis was performed using ANOVA followed by Tukey's multiple comparison test (p < 0.05). Abbreviations: 4MeGBC, 4-methoxyglucobassicin; 4-OHGBC, 4-oxyglucobassicin; GAS, glucoalysin; GBC, glucobarasicin; GB, gluconagin; GRN, glucoaphanin; neoGBC, neoglucobrascin; GBR, gluciberin; GBV, gluciberverin; GEC, glucoercin; GHT, glucohirsutin; GNA, gluconapin; GRN, glucoaphanin; neoGBC, neoglucobrascin.
TABLE 7 Total thioglycoside GS content (. Mu. Mol. G) -1 DW)
Note that: data represent mean ± standard deviation of triplicate samples. Statistical analysis was performed using ANOVA followed by Tukey's multiple comparison test (p < 0.05). Abbreviations: AGS, aliphatic glucosinolate; IGS, indole glucosinolate.
2.3.4 in vitro antifungal Activity assay of overexpressed transgenic Arabidopsis thaliana
In order to study the resistance degree of transgenic arabidopsis to sclerotinia sclerotiorum, 25mg×3 of freeze-dried powder of rosette leaves of each transgenic plant is uniformly distributed around hypha. After 72 hours of incubation, plaque cotton mycelia grew with macroscopic changes (fig. 13). At BrMYC2 OE The thinnest sclerotinia bacterial plaque was found, followed by BrMYC3-1 OE ,BrMYC4-1 OE ,BrMYC3-2 OE And BrMYC4-2 OE . Control strain expression vector controls showed a ratio ddH 2 The much thinner O control sclerotinia plaques indicate that the presence of Ctrl at the endogenous basal sulfan level inhibits the nucleus to some extentGrowth of the dish fungus. Notably, the control showed thicker sclerotinia plaques than the BrMYC2/3/4 overexpressing transgenic strain. This is probably due to the higher content of sulfan accumulated in BrMYC2/3/4 overexpressing transgenic lines, which in turn inhibits the growth of sclerotinia hyphae.
Claims (1)
- Use of BrMYC4-2 gene overexpression in promoting delayed flowering in a plant, the BrMYC4-2 gene number being braa01g009470.3c, said plant being arabidopsis thaliana.
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