CN112481235B - Application of Trdrs2 protein and related biological material thereof in regulation of protein synthesis and secretion capacity of Trichoderma reesei - Google Patents

Application of Trdrs2 protein and related biological material thereof in regulation of protein synthesis and secretion capacity of Trichoderma reesei Download PDF

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CN112481235B
CN112481235B CN202011342021.3A CN202011342021A CN112481235B CN 112481235 B CN112481235 B CN 112481235B CN 202011342021 A CN202011342021 A CN 202011342021A CN 112481235 B CN112481235 B CN 112481235B
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trichoderma reesei
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秦丽娜
江贤章
何若男
黄建忠
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Fujian Normal University
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Abstract

The invention discloses application of Trdrs2 protein and related biological materials thereof in regulating and controlling the protein synthesis and secretion capacity of Trichoderma reesei. The Trdrs2 gene in the Trichoderma reesei starting strain is knocked out to obtain the Trdrs2 gene knocked-out strain with obviously increased extracellular protein secretion amount. The Trdrs2 is a regulatory gene related to the extracellular protein secretion of Trichoderma reesei (Trichoderma reesei), and the Trdrs2 gene is knocked out to improve the protein synthesis and secretion capacity of Trichoderma reesei. The invention provides a technical basis for constructing trichoderma reesei host bacteria and engineering bacteria with increased extracellular protein secretion.

Description

Application of Trdrs2 protein and related biological material thereof in regulation of protein synthesis and secretion capacity of Trichoderma reesei
Technical Field
The invention relates to the technical field of biology, in particular to application of Trdrs2 protein and related biomaterials in regulation of protein synthesis and secretion capacity of Trichoderma reesei.
Background
The method has quite wide application prospect in producing biofuel or other bulk chemicals by degrading cheap and abundant plant biomass materials into simple glycogen which can be used for microbial fermentation by using cellulase. Currently, the main industrial strain for industrial production of cellulase is the filamentous fungus Trichoderma reesei (Trichoderma reesei), which is a mesophilic saprophytic fungus and can be used for producing cellulose and hemicellulase for industries such as food, feed, textile, pulping and paper making. Has become an important model strain for researching cellulose degradation. Trichoderma reesei is an FDA-certified safe production strain, has strong protein secretion capacity, and has a glycosylation system similar to that of higher mammals, so Trichoderma reesei is also a very ideal recombinant protein expression host, and is widely used as an excellent heterologous protein expression host in recent years. At present, the cost of biomass degrading enzymes is too high, which is one of the main obstacles for effective utilization of lignocellulose substances, and in order to further improve the yield of cellulase hemicellulase of trichoderma reesei and improve the secretion amount of heterologous protein expressed by the cellulase, how to improve the extracellular protein synthesis secretion amount of trichoderma reesei becomes a research hotspot in recent years.
The current research shows that the expression regulation of the Trichoderma reesei cellulase gene is performed at the transcription level and is promoted by a transcription activator and repressed by a carbon metabolism inhibitor protein, and in the previous research, only 3 transcription activators (Ace2, Hap2/3/5 and Xyr1) and 2 repressor proteins (Cre I and Ace I) are separated and identified by adopting traditional methods such as gene cloning, yeast hybridization and the like. Meanwhile, researches show that the deletion of the repressor protein can obviously improve the expression level of the trichoderma reesei exocrine protein. Based on the complexity of the regulation of Trichoderma reesei cellulase expression, many key regulatory factors should remain in the transcriptional regulation process. By analyzing the functions of some proteins with typical structures of transcription factors, the research on the functions of the proteins in the cellulose hemicellulase biosynthesis is expected to further improve the capability of trichoderma reesei in synthesizing and secreting proteins from the mechanism.
Trichoderma reesei Trdrs2 gene (GenBank accession number: NCU00352) encodes phospholipid-transferring ATPase (phospholipid-transferring ATPase), participates in ribosome assembly, and reports related to protein secretion pathways are not found at present.
Disclosure of Invention
The invention aims to provide application of Trdrs2 protein derived from Trichoderma reesei and related biological materials thereof in regulation of protein synthesis and secretion capacity of Trichoderma reesei (Trichoderma reesei).
In order to achieve the aim, the invention provides the application of any one of the following substances A-C in regulating and controlling the secretion amount of extracellular proteins of Trichoderma reesei (Trichoderma reesei);
A. trdrs2 protein;
B. nucleic acid molecules encoding the Trdrs2 protein;
C. an expression cassette or recombinant vector or recombinant cell containing the nucleic acid molecule;
the Trdrs2 protein is any one of the following a1) -a 4):
a1) protein shown as a sequence 6 in a sequence table;
a2) a fusion protein obtained by connecting labels to the N terminal or/and the C terminal of the protein of a 1);
a3) a protein which is obtained by substituting and/or deleting and/or adding one or more amino acid residues in a1) and is related to the secretion amount of the trichoderma reesei extracellular protein;
a4) protein with more than 98% of identity with a1) and related to the secretion amount of the trichoderma reesei extracellular protein.
In order to achieve the purpose, the invention also provides application of the substance shown in b1) or b2) in improving the secretion amount of extracellular proteins of Trichoderma reesei (Trichoderma reesei):
b1) substances which cause the loss of the activity of the Trdrs2 protein in Trichoderma reesei (Trichoderma reesei);
b2) a substance for knocking out a nucleic acid molecule encoding a Trdrs2 protein in Trichoderma reesei (Trichoderma reesei);
the Trdrs2 protein is any one of a1) -a4) as follows:
a1) protein shown as a sequence 6 in a sequence table;
a2) a fusion protein obtained by connecting labels to the N terminal or/and the C terminal of the protein of a 1);
a3) a protein which is obtained by substituting and/or deleting and/or adding one or more amino acid residues in a1) and is related to the secretion amount of the trichoderma reesei extracellular protein;
a4) protein with more than 98% of identity with a1) and related to the secretion amount of the trichoderma reesei extracellular protein.
In the application, the nucleic acid molecule encoding the Trdrs2 protein is any one of c1) -c 3):
c1) DNA molecules shown in a sequence 1 or a sequence 2 in a sequence table;
c2) a DNA molecule having 95% identity or more to c1) and encoding the protein;
c3) a DNA molecule which hybridizes with the nucleotide sequence defined by any one of c1) or c2) under strict conditions and codes the protein.
Wherein the DNA molecule shown in the sequence 1 in the sequence table is a cDNA sequence of Trichoderma reesei Trdrs2 gene and consists of 4188 bases; the DNA molecule shown in the sequence 2 in the sequence table is Trichoderma reesei Trdrs2 gene and genome DNA sequences of 2500bp at the upstream and the downstream of the Trichoderma reesei Trdrs2 gene, the 1 st to 2500 th sites of the sequence 2 in the sequence table are the upstream 2500bp sequences of the Trdrs2 gene, the 6689 nd-9188 th sites of the sequence 2 in the sequence table are the downstream 2500bp sequences of the Trdrs2 gene, and the Trdrs2 gene and the upstream and downstream sequences thereof can be seen in the following websites: https:// www.ncbi.nlm.nih.gov/nucleotide/CP 016236.1? report & log $ ═ nuclear & blast _ rank ═ 1& RID ═ G7GAV51W 014.
In the application, the substance for knocking out the nucleic acid molecule coding for the Trdrs2 protein in the Trichoderma reesei is a DNA fragment for knocking out the nucleic acid molecule coding for the Trdrs2 protein in the Trichoderma reesei (Trichoderma reesei), or a recombinant vector containing the DNA fragment or a recombinant cell containing the DNA fragment.
Further, the DNA fragment of the nucleic acid molecule encoding the Trdrs2 protein in the knocked-out Trichoderma reesei (Trichoderma reesei) contains an upstream homology arm of the Trdrs2 gene and a downstream homology arm of the Trdrs2 gene.
Wherein, the upstream homology arm used in the homologous recombination can be selected from the upstream sequence of the Trdrs2 gene and has the length of at least 1000bp, and the downstream homology arm used in the homologous recombination can be selected from the Trdrs2 gene and the downstream sequence thereof and has the length of at least 1000 bp. In the embodiment of the present invention, the nucleotide sequence of the upstream homology arm used in the homologous recombination can be the 1 st-2000 st position (i.e. the 501 st-2501 st position of the sequence 2) of the sequence 3 in the sequence table, and the nucleotide sequence of the downstream homology arm used in the homologous recombination can be the 6189 st-8188 th position (i.e. the 6689 nd-8688 th position of the sequence 2) of the sequence 3 in the sequence table.
Furthermore, the DNA fragment of the nucleic acid molecule for knocking out the Trdrs2 protein in the Trichoderma reesei (Trichoderma reesei) is the DNA fragment shown in the sequence 4 in the sequence table.
In order to realize the aim, the invention also provides a construction method of the recombinant trichoderma reesei.
The construction method of the recombinant trichoderma reesei provided by the invention is m1) or m 2):
m1) comprises the following steps: the activity of Trdrs2 protein in Trichoderma reesei (Trichoderma reesei) is lost to obtain the recombinant Trichoderma reesei;
m2) comprises the following steps: knocking out nucleic acid molecules encoding Trdrs2 protein in Trichoderma reesei (Trichoderma reesei) to obtain the recombinant Trichoderma reesei.
In the above method, m2), the method for knocking out the nucleic acid molecule encoding the Trdrs2 protein in Trichoderma reesei (Trichoderma reesei) can be homologous recombination, random insertion mutation or RNAi.
Further, the nucleotide sequence of the upstream homology arm adopted in the homologous recombination is 1 st to 2000 th of the sequence 3 in the sequence table, and the nucleotide sequence of the downstream homology arm adopted in the homologous recombination is 6189-8188 th of the sequence 3 in the sequence table.
Furthermore, the module for homologous recombination (knock-out module) consists of a selection marker gene inserted into the upstream and downstream homology arms of the Trdrs2 gene to facilitate selection of transformants. In the embodiment of the invention, the homologous recombination is realized by introducing a DNA fragment shown in a sequence 4 in a sequence table into the Trichoderma reesei (Trichoderma reesei). The 1 st-2000 th homology arm of Trdrs2, the 3914 th-5913 th homology arm of Trdrs2 and the 2001 th-3913 th homology arm of the sequence 4 in the sequence table are pyr4 genes. Among them, pyr4 is a selection marker gene and is a gene of the nutritional selection marker gene orotidine-5' -monophosphate decarboxylase.
To achieve the above object, the present invention finally provides a biomaterial as described in any one of the following n1) -n 6):
n1) recombinant Trichoderma reesei constructed by the above method;
n2) the above substance which causes the loss of the activity of Trdrs2 protein in Trichoderma reesei (Trichoderma reesei);
n3) the above substance for knocking out a nucleic acid molecule encoding a Trdrs2 protein in Trichoderma reesei (Trichoderma reesei);
n4) the above DNA fragment which knocks out the nucleic acid molecule encoding the Trdrs2 protein in Trichoderma reesei (Trichoderma reesei);
n5) a recombinant vector containing the DNA fragment of n 4); the recombinant vector is used for storing the knockout component;
n6) recombinant cells containing the DNA fragment of n 4); the recombinant cells are used to preserve knock-out components.
The application of the method or the biological material in preparing or synthesizing or expressing extracellular protein also belongs to the protection scope of the invention.
In any of the above applications or methods, the recombinant cell may be a non-human animal cell, a microbial cell, or a plant cell.
In any of the above applications or methods, the extracellular proteins include endogenous proteins of Trichoderma reesei (Trichoderma reesei), such as cellulases and/or hemicellulases, and may further include exogenous proteins introduced into Trichoderma reesei (Trichoderma reesei). Wherein, in Trichoderma reesei strains which do not contain foreign proteins, the regulation and control of the secretion amount of extracellular proteins of Trichoderma reesei (Trichoderma reesei) can be embodied as the regulation and control of the secretion amount of cellulase and/or hemicellulase.
In any of the above uses or methods, the trichoderma reesei is trichoderma reesei strain TU6 Δ tku 70.
Experiments prove that after the Trdrs2 gene in the Trichoderma reesei starting strain is knocked out, a Trdrs2 gene knocked-out strain with obviously increased extracellular protein secretion is obtained, which indicates that the Trdrs2 is a regulatory gene related to the extracellular protein secretion of Trichoderma reesei (Trichoderma reesei), and the ability of synthesizing and secreting the protein of Trichoderma reesei can be improved by knocking out the Trdrs2 gene. The invention provides a technical basis for constructing trichoderma reesei host bacteria and engineering bacteria with increased extracellular protein secretion.
Drawings
FIG. 1 is a PCR identification map of Trdrs2 knock-out strain. PA: starting plants; T1-T7: and (3) a transformant.
FIG. 2 is an SDS-PAGE analysis of the Trdrs2 knock-out strain and the fermentation supernatants of the starting strains. 1-3: t. reesei primary strain; 4-6: t.reesei Δ drs 2; m: and (4) protein molecule standard.
FIG. 3 shows the results of protein concentration determination of fermentation supernatants of Trdrs2 knockout strain and starting strain.
Detailed Description
The following examples are given to facilitate a better understanding of the invention, but do not limit the invention.
The test methods in the following examples are conventional methods unless otherwise specified.
The test materials used in the following examples were purchased from a conventional biochemical reagent store unless otherwise specified.
All primers in the following examples were synthesized by Shanghai.
Trichoderma reesei strain TU 6. DELTA. tku70 referred to in the following examples is a uracil auxotrophic strain as presented by the Monika Schmoll laboratory, university of Vienna, Austria, and TU 6. DELTA. tku70 is a KU70.4 transformant (obtained by deleting tku70 from Hypocrea jecoriana (a sexual form of Trichoderma reesei)) TU-6 strain as described in the following references: gene targeting in a nonhomologous end joining in a scientific Hypopocrea j ecina Zhang Guangtaoa et al journal of Biotechnology 139(2009) 146- & 151.
The formulations of the media and reagents involved in the following examples are as follows:
1) potato medium PDA (100 mL): cutting 20g peeled potato, adding 90mL water, boiling for 30min, filtering with double-layer gauze, adding 2g glucose and 1.8g agar powder, adding water to 100mL, and sterilizing with 115 deg.C high-pressure steam.
2) Minimal Medium (MM): the solvent is water, and solutes and the mass thereof in each liter of culture medium are as follows: 0.05g (NH) 4 ) 2 SO 4 ,0.15g KH 2 PO 4 ,0.006g MgSO 4 ,0.006g CaCl 2 ,0.00005g FeSO 4 ·7H 2 O,0.000016g MnSO 4 ·H 2 O,0.000014g ZnSO 4 ·7H 2 O,0.00002g CoCl 2
3) Fermentation medium: one of the following carbon sources (e.g., 2% cellulose, 2% lactose, 2% glucose, 2% glycerol, final concentration) was added to MM medium at pH 5.2. + -. 0.1.
A1, MM media plates containing 1.0M sorbitol but no uridine: sorbitol was added to MM to a final concentration of 1.0M, and agar was added to prepare a solid medium.
Plates of a2, MM + 0.1% Triton X100: triton X100 was added to MM with 2% glucose to a final concentration of 0.1% by volume, and agar was added to make a solid medium.
A3, MM liquid medium with 2% glucose: the resulting liquid medium was added with glucose to a final concentration of 2% (mass percent concentration) to MM.
A4, MM + 2% microcrystalline cellulose liquid medium: adding microcrystalline cellulose to MM to a final concentration of 2% (mass% concentration) to obtain a liquid medium.
4) LB medium: the solvent is water, and solutes in each liter of culture medium and the mass percentage content are as follows: 1% peptone, 1% sodium chloride, 0.5% yeast extract.
5) Trichoderma reesei chromosomal DNA extraction buffer (pH 7.5):
EDTA 1mM
phosphate buffer 50mM
5 percent of glycerin
6) Protoplast preparation and transformation-related reagents:
0.2M phosphate buffer pH 7.4 (per 100mL)
0.2M Na 2 HPO 4 81mL
0.2M NaH 2 PO 4 19mL
1.2mol/L MgSO 4 Solutions of
MgSO 4 1.2M
Phosphate buffer pH 7.410 mM
0.6M sorbitol solution
Sorbitol 0.6M
Tris.Cl pH 7.0 0.01M
1.0M sorbitol solution
Sorbitol 1.0M
CaCl 2 0.01M
Tris.Cl pH 7.5 0.01M
PEG solution
PEG4000 50%
CaCl 2 0.05M
Tris.Cl pH 7.5 0.01M
Example 1 knock-out of Trichoderma reesei Trdrs2 Gene to construct recombinant Trichoderma reesei with increased extracellular protein secretion
In this example, a Trdrs2 gene was knocked out by introducing a DNA fragment (knock-out module) shown in sequence 4 in the sequence table into trichoderma reesei starting strain trichoderma reesei strain TU6 Δ tku70 through homologous recombination to obtain a Trdrs2 gene knock-out strain (recombinant trichoderma reesei) with significantly increased extracellular protein secretion.
Construction of Trdrs2 gene-knocked-out recombinant Trichoderma reesei
1. PCR amplification of Trdrs2 gene (containing two homologous arms) and pyr4 gene expression cassette
1) Taking Trichoderma reesei strain TU6 delta tku70 genome DNA as a template, respectively adopting a pDrs2-1F/pDrs2-1R primer pair and a pDrs2-3F/pDrs2-3R primer pair to carry out PCR amplification, and respectively obtaining a Trdrs2 upstream homologous arm with the size of 2000bp and a Trdrs2 downstream homologous arm with the size of 2000 bp.
The amplification procedure was: pre-denaturation at 98 ℃ for 30s, denaturation at 98 ℃ for 10s, annealing at 68 ℃ for 20s, extension at 72 ℃ for 1min, and 30 cycles; finally, extension at 72 ℃ was performed for 5 min.
2) The genomic DNA of Trichoderma reesei strain QM9414(ATCC 26921) is used as a template, and pDrs2-2F/pDrs2-2R primer pair is adopted for PCR amplification to obtain the pyr4 gene of the nutritional selective marker gene orotidine-5' -monophosphate decarboxylase with the size of 1913 bp.
The amplification procedure was: pre-denaturation at 98 ℃ for 30s, denaturation at 98 ℃ for 10s, annealing at 68 ℃ for 20s, extension at 72 ℃ for 1min, and 30 cycles; finally, extension at 72 ℃ for 5 min.
3) The PCR products obtained in the steps 1) and 2) are respectively subjected to 1% agarose gel electrophoresis for size identification and sequencing, and the result shows that the amplified upstream homology arm is a sequence shown in the 1 st-2055 th site of the sequence 4 in the sequence table, the amplified pyr4 gene is a sequence shown in the 1978 th-3933 th site of the sequence 4 in the sequence table, and the amplified downstream homology arm is a sequence shown in the 3914 th-5913 th site of the sequence 4 in the sequence table.
The primer sequences used were as follows:
pDrs2-1F:ctccaaggtgttggggatcgtgtgccgcgtttcttgggcgttgctgg;
pDrs2-1R:gatacccgatattgcgactttgggggccggaggacgagcagtggttag;
pDrs2-2F:ctaaccactgctcgtcctccggcccccaaagtcgcaatatcgggtatc;
pDrs2-2R:caattttttctttgctttttcaactgcatccaaaccatcctac;
pDrs2-3F:gtaggatggtttggatgcagttgaaaaagcaaagaaaaaattg;
pDrs2-3R:tttggtgtgaagaggggagggggatatgtaaggggaaattggggtc。
2. PCR amplification of PSK frameworks
PCR amplification was performed using a commercial plasmid pBluescript II SK (+) (Stratagene) as a template and pSK-F/pSK-R primer pairs to obtain a 2899bp PSK scaffold, the ends of which contained 25bp upstream and 25bp downstream homology arms of Trdrs2 and 2, respectively.
The amplification procedure was: pre-denaturation at 98 ℃ for 30s, denaturation at 98 ℃ for 10s, annealing at 68 ℃ for 20s, extension at 72 ℃ for 1min, and 30 cycles; finally, extension at 72 ℃ for 5 min.
The primer sequences used were as follows:
pSK-F:ccaccacatacatacagacagaccccaatttccccttacatatcc;
pSK-R:gcacacgatccccaacaccttggagcaattcgccctatagtgagt。
3. construction of trichoderma reesei pDRs2 knockout vector and obtaining of knockout component
1) By NEB Gibson
Figure BDA0002798195610000061
The Master Mix enzyme mixes the amplified upstream homologous arm fragment of Trdrs2 with the size of 2000bp, the pyr4 gene fragment with the size of 1913bp, the downstream homologous arm fragment of Trdrs2 with the size of 2000bp and the PSK skeleton with the size of 2899bp, and the specific method is as follows:
1-1) the amount of backbone fragment added was determined on the basis of 30-50ng of backbone sample addition.
1-2) converting the size of the backbone segment into moles based on the volume added.
1-3) taking the skeleton as a standard, ensuring that the molar ratio of the insert fragment to the skeleton fragment is 1:2-1:3 and the molar ratio between the insert fragments is 1:1 during sample addition, thereby obtaining the molar number of each fragment.
1-4) dividing the number of moles by the corresponding concentration to obtain the loading volume required for each fragment.
1-5) Add the corresponding volume of each fragment to the PCR tube, followed by equal amounts (total fragment volume) of Gibson
Figure BDA0002798195610000062
The Master Mix enzyme was gently mixed by pipetting with a gun.
1-6) incubating the mixed solution at 50 ℃ for 60min, and finally taking 2 mu L of reaction solution to transform the escherichia coli competent cells.
2) And connecting the four mixed fragments, then transforming escherichia coli, and selecting a transformant for sequencing identification to obtain a knockout vector pDRs2 of the Trdrs2 gene.
3) Carrying out PCR amplification by taking the plasmid pDrs2 as a template and adopting a pDrs2-1F/pDrs2-3R primer pair, wherein the amplification conditions are as follows: pre-denaturation at 98 ℃ for 30s, denaturation at 98 ℃ for 10s, annealing at 68 ℃ for 20s, extension at 72 ℃ for 3.6min, and 30 cycles; finally, extension at 72 ℃ was performed for 5 min. The product obtained by PCR amplification is a knockout component fragment containing upstream and downstream homologous arms of the Trdrs2 gene and an expression frame of the pyr4 gene, the sequence of the knockout component fragment is shown as a sequence 4 in a sequence table, the 1 st to 47 th sites of the sequence 4 are pDRs2-1F, the 5868 th and 5913 th sites are reverse complementary sequences of pDRs2-3R, the 1 st to 2000 th sites are upstream homologous arms of the Trdrs2, the 3914 th and 5913 th sites are downstream homologous arms of the Trdrs2, and the 2001 th and 3913 th sites are pyr4 gene fragments.
4. Protoplast preparation of Trichoderma reesei strain Tu 6. delta. tku70
A. Taking freshly cultured Trichoderma reesei strain Tu6 delta tku70 spores on a slant or a plate (the culture medium is PDA), washing the spores with a proper amount of sterile water to prepare a spore suspension, and filtering with a 200-mesh sieve to remove residual hyphae. The filtered spore suspension was inoculated into a 500mL Erlenmeyer flask containing 100mL MM medium and incubated at 28 ℃ for 13-14h until the hyphae stretch.
B. Filtering the culture solution with 200 mesh sieve, collecting thallus, washing with sterile water for 2-3 times, and adding 1.2M MgSO 4 The solution is washed once, and the solution is naturally drained.
C. The cells on the sieve were washed into a flask containing 15mL of a lysate (1.2M MgSO 2 containing 150mg of lyase and 15mg of cellulase) 4 Solution) at 30 ℃ for 1.5h, observing the generation of protoplast under a microscope, and sampling and observing once every 10min after 1 h.
D. When the protoplast is produced in large quantity and a large amount of hypha still exists, adding equal volume of 0.6M sorbitol solution to stop the reaction, filtering with a 200-mesh sieve to remove residual hypha, centrifuging at 3000rpm for 10min at room temperature, and collecting the protoplast precipitate.
E. The supernatant was decanted along the pellet side and the protoplast pellet was resuspended in 1.0M sorbitol and centrifuged at 3000rpm for 10min at room temperature.
F. Step E was repeated, the supernatant was discarded and the protoplasts were suspended in 200. mu.L of 1.0M sorbitol solution to give protoplasts of Trichoderma reesei strain Tu 6. delta. tku70, which were observed and counted in a hemocytometer.
5. Transformation of Trichoderma reesei strain Tu 6. delta. tku70 protoplast by Trdrs2 knock-out module
A. Recovering the knockout component (the sequence of which is shown as sequence 4 in the sequence table) obtained by performing PCR amplification by using the pDRs2-1F/pDRs2-3R primer pair in the step 3, precipitating the knockout component by using 2 times of volume of absolute ethyl alcohol and 1/10 volume of 3.0M sodium acetate solution (pH5.2) overnight, washing the knockout component by using 70% of ethanol solution for 2 times, and sterilizing ddH 2 O dissolves, bringing the concentration of the knock-out component to the order of micrograms per microliter.
B. Adding a certain amount (the volume is not more than 20 mu L) of prepared knockout assembly into the trichoderma reesei strain Tu6 delta tku70 protoplast prepared in the step 3, gently mixing the components uniformly, adding 50 mu L of PEG4000 into the protoplast, mixing the components uniformly again, and standing the mixture on ice for 30 min; while the DNA was replaced with an equal volume of sterile water as a control.
C. Then, 1mL of PEG4000 was added to each of the tubes, and the mixture was mixed well and left at room temperature for 20 min.
D. 1mL of 1.0M sorbitol solution was added, mixed well and mixed with four 4mL portions of thawed MM medium (below 58 ℃) in four portions, immediately plated on MM medium plates containing 1.0M sorbitol but no uridine, and cultured at 30 ℃ for 4 to 7 days. In MM medium without uridine, only the strain transformed with pyr4 grew.
6. Screening of transformants and molecular identification
After the transformant grows out, the transformant is transferred to a PDA plate, after the transformant is cultured at 28 ℃ for 3-5 days and spores are generated, the spores on the plate are washed down by sterile water to prepare spore suspension, and after gradient dilution, the spore suspension is coated on a MM + 0.1% Triton X100 plate for single spore division. After hyphae grow out, extracting genome DNA, and identifying positive transformants by PCR, wherein the identification primers are as follows:
pDrs2-4-F:TGTACATGTTGAGCTATGAC;
pDrs2-pyr4-R:GAGATGGCACAATTCTGCTGTG;
pDrs2-drs2-R:CCAGGTCGTCGTCATTGAG。
the sequence 2 in the sequence table is Trdrs2 gene and the 2500bp fragment of the upstream and downstream thereof. pDRs2-4-F corresponds to position 372-391 of sequence 2 and pDRs2-drs2-R corresponds to position 2612-2630 of sequence 2. Sequence 5 in the sequence table is a genome sequence of a Trichoderma reesei Trdrs2 knockout strain with the Trdrs2 gene replaced by pyr 4. pDrs2-4-F corresponds to position 372-391 of sequence 2 and pDrs2-pyr4-R corresponds to position 2743-2764 of sequence 5.
Wherein, the pDrs2-4-F primer is combined with the outer sequence of the homologous arm in the knockout module, pDrs2-pyr4-R is positioned in pyr4 gene sequence, pDrs2-drs2-R is positioned in drs2 gene sequence, if the Trdrs2 knockout module is integrated in a site of Trdrs2, the pDrs2-4-F/pDrs2-pyr4-R primer pair theoretically should amplify a fragment with the size of 2393bp, and the pDrs2-4-F/pDrs2-drs2-R primer pair should not amplify a fragment. And the starting strain Trichoderma reesei strain Tu6 delta tku70 is a primer pair pDrs2-4-F/pDrs2-pyr4-R which cannot amplify fragments, and a primer pair pDrs2-4-F/pDrs2-drs2-R theoretically should amplify fragments with the size of 2259 bp. The PCR product with the size of 2393bp is amplified by pDrs2-4-F/pDrs2-pyr4-R, the strain which cannot amplify the PCR product by using the pDrs2-4-F/pDrs2-drs2-R primer pair is the Trdrs2 knockout strain (recorded as T.reesei. delta. drs2), and the PCR identification result is shown in figure 1. Wherein PA is Trichoderma reesei strain Tu6 delta tku70DNA as a template, and T-1-T-7 are transformant screening DNA as a template. P1: PCR amplification products using a primer pair of pDrs2-4-F/pDrs2-pyr 4-R; p2: PCR amplification products using a primer pair pDRs2-4-F/pDRs2-drs 2-R. Finally, T-1, T-2, T-3, T-5 and T-7 obtained by screening are target Trichoderma reesei delta drs2 homokaryons, and T-4 and T-6 are heterozygotes.
The genome sequence of the Trdrs2 knockout strain (denoted as t.reesei Δ drs2) is obtained by replacing the Trdrs2 gene sequence in the genome sequence of trichoderma reesei strain Tu6 Δ tku70 with pyr4 gene sequence.
Second, analysis of differences in protein expression and secretion of fermentation liquids of control strains and knockout strains
After the genetically stable transformant is obtained in the first step, Trichoderma reesei strain Tu 6. delta. tku70(T. reesei WT for short) and Trds2 knock-out strain (T. reesei. delta. drs2 for short. delta. drs2) are transferred to a PDA plate to produce spores, the spores are washed with sterile water and filtered through a 200-mesh sieve to prepare a spore suspension, and the spore suspension is added into a 250mL Erlenmeyer flask containing 50mL MM liquid medium containing 2% glucose to make the final concentration 10 8 The cells were pre-cultured at 28 ℃ and 200rpm for 48 hours in a 20% microcrystalline cellulose liquid medium (5 mL) and shake-cultured at 28 ℃ and 200rpm for 168 hours, during which the fermentation supernatant (extracellular fermentation broth) was collected every 24 hours from 48 hours and analyzed by SDS-PAGE. The culture conditions and the inoculation amounts of Trichoderma reesei strain Tu6 delta tku70 and Trdrs2 knockout strain are completely the same. The volume of fermentation supernatants of Trichoderma reesei strain Tu 6. delta. tku70 and Trdrs2 knock-out strain were the same for each sampling. Three bottles of each of the Trichoderma reesei strain Tu 6. delta. tku70 and Trdrs2 knock-out strain were taken for each sampling. SDS-PAGE (figure 2) is carried out on secretory proteins of the Trichoderma reesei strain Tu6 delta tku70 and the Trdrs2 knockout strain after 168h of fermentation, and the result shows that the amount of the exocrine proteins of the Trdrs2 knockout strain is obviously higher than that of the Trichoderma reesei strain Tu6 delta tku 70.
The total protein concentration of 168h fermentation supernatant was determined by the following method:
(1) mu.L of appropriately diluted sample solution was added to the microplate, and 1 replicate control was set up. And simultaneously setting a standard group: for 7 standards, 20. mu.L of BSA (bovine serum albumin) standard solutions at concentrations of 0. mu.g/mL, 50. mu.g/mL, 100. mu.g/mL, 150. mu.g/mL, 200. mu.g/mL, 250. mu.g/mL, and 300. mu.g/mL were added to each of the 1 replicates.
(2) 200. mu.L of Bradford working solution was added to each well simultaneously and mixed immediately.
(3) After reaction at room temperature (25-30 ℃) for 5min, the reading value of a sample well of 0 mug/mL is taken as a blank reference, and the A595 value of each well is read by a microplate reader.
(4) And drawing a standard curve by taking the A595 two-comparison average value in the standard group as an ordinate and the corresponding protein concentration as an abscissa.
(5) And calculating the concentration value of the protein after dilution by taking the standard curve as a reference, and calculating the concentration of the protein of the original sample according to the dilution times.
The detection result shows that: the protein concentration of the Trichoderma reesei Trdrs2 knockout strain delta drs2 is 158.21 mug/mL, the protein concentration of the Trichoderma reesei strain Tu6 delta tku70 is 55.54 mug/mL (figure 3), after the Trdrs2 gene is knocked out, the exocrine protein concentration of the Trichoderma reesei is 3 times of the protein concentration of the original strain, and the exocrine protein secretion amount of the Trdrs2 knockout strain is obviously improved compared with that of the Trichoderma reesei strain Tu6 delta tku 70. The Trdrs2 gene is proved to have the function of regulating the secretion amount of the trichoderma reesei extracellular protein.
The above description is only a preferred embodiment of the present invention, and it should be noted that, for those skilled in the art, it is possible to make various improvements and modifications without departing from the technical principle of the present invention, and these improvements and modifications should also be considered as the protection scope of the present invention.
Sequence listing
<110> university of Fujian profession
Application of <120> Trdrs2 protein and related biological material thereof in regulation and control of protein synthesis and secretion capacity of trichoderma reesei
<160> 6
<170> PatentIn version 3.5
<210> 1
<211> 4188
<212> DNA
<213> Artificial Sequence
<400> 1
atggctggac gacatcccat aggaggccat ggcgggccct cgaccaccga cgacctgctg 60
ctcgacctgg acaatgagca gcccgtctac aacgccggcc agcggtcggc cctcaatgac 120
gacgacctgg cgcgggccta cgagcacgac cacgacaacg acccccagag ccgcccgtcg 180
gtgtcgtacg acgactttgt cggcgccgag ccgtcatatc ccccagcagg gcgccccggc 240
ctggcgcagg cagcgcagcc gtcggggcag tcgtcgggcc cgtaccacgc tcagcagttc 300
agccagtcgt cggacctcga caacttcccg cgctacgccg acgacttcga cgacgacgac 360
atgtactacc agcacggcgg cgcggcgggc gcggggccgg cgtcggctgg cagggacaat 420
gcgagggccc gcaacagcgt gctgtcgctg ggaggcggcc tctttggcaa gctgaagcac 480
cgcctgggca tgggccaggg ctactccgag atggacctcc ccttgacgga gccgggccac 540
gatcgaggcg gccccatagc gggctcgtcg cagccgccgg accagcagcc cgcgggcaag 600
aaggcgggca acttcaagtt tggctttggc cgcggcaagc ccgatcccgc gtccctgggc 660
ccgagaatca tccacctcaa caacccgccc gccaacgcgg ccaacaagta cgtcggcaac 720
cacatctcga cggcaaagta caacgtcgcc acgttcctcc ccaagttcct ctttgagcag 780
ttctccaagg tcgccaacat cttcttcctc ttcacggccg cgttgcagca gatccccgga 840
ctgtcgccca ccaacaagta caccacaatc ggacccctgg ctgttgtgct cctggtttct 900
gctggcaagg aattggtgga ggattaccgg agaagagtgg cggacaatgc cctcaacaca 960
tccaaggcgc gagtcctgcg cggctcgacg tttacggaaa cgaaatggaa caccgtggcc 1020
gtgggcgacg tggttagggt cgagtccgag gagccgttcc ccgccgatct ggtgcttctg 1080
gcaagttccg agcccgaggg tctctgttat atcgaaacgg cgaacctgga tggcgagacc 1140
aacttgaaga tcaagcaggc cctccccgag acgtcgacgc tggtgtcccc cagcgaagtc 1200
agccggctgg gaggtcgcat caagtcggag cagcccaaca gcagtctgta cacgtacgaa 1260
gcgacgctga tcatgcaagc cggaggagga gaaaaggagc tggcactgaa ccctgagcag 1320
ctgcttctcc gaggtgccac tctgagaaac actccctgga tccacggcat cgtcgtcttc 1380
accggccacg agaccaagct gatgcgaaac gcgaccgcga cgccgatcaa gcggaccaag 1440
gtcgagaggc agctcaactg gctcgtgctc atgctggtcg gcatgctgct ggtgctcagc 1500
gtcatcagta ccattggaga cttggtgatg cgaggcgcca ccggcgattc gctttcgtat 1560
ctctacctgg acaagatcga cagcgctggc gttgcggcct cgacgttctt caaggacatg 1620
gtcacgtact gggtgctctt ctccgcgctg gtccccatct ccctctttgt cacggtggaa 1680
ttggtcaagt attggcacgg catcctcatc aacgacgacc tcgacatgta ctacgacaag 1740
acggatacgc cggccacttg ccgaacgtcg agtctggtcg aggagcttgg catggtcgag 1800
tacgtgttct ctgacaagac tggcacgctc acttgcaaca tgatggagtt caagcagtgc 1860
tcgattggcg gcatcatgta tgccgaagag gttcccgagg accgccgagc gagcggcgcc 1920
gacgacgaag agacggctat ttacgacttc aaggcgctcc aggccaacct gacccaaggc 1980
catccgaccg cgggcatgat tgatcatttc ctttcgctgc tcgcaacctg ccacacggtc 2040
atccccgaga tggatgaaaa gggtcagatc aagtaccaag cggcctctcc cgacgaaggt 2100
gccctggtgg ccggagcggt taccatggga tacaagttta ctgcacgaaa gccaaagtcg 2160
gtcattatag aagccaacgg gcgagagatg gaatacgagc tgctggccgt ctgcgaattc 2220
aactcgacgc gcaagcgaat gtctgccatc ttccgctgcc cggacggaaa gattcgagtc 2280
tactgcaaag gtgccgacac cgtcattctt gagcggctca acgatcagaa cccccacgtc 2340
gaaatcaccc tgcggcacct ggaggagtac gcctcggagg ggctgcggac gctctgcttg 2400
gccatgcgcg aggtgcccga acaggagtac cgcgaatggc gccagatctt tgacacggcg 2460
gcgacgacgg tgggcggcaa ccgagccgat gagctggaca aggctgccga aatcattgaa 2520
cacgactttt acctcctggg agctactgcc attgaggacc gcctgcaaga cggcgttccg 2580
gagacgatcc acacgctgca gcaagccaac atcaaggtct gggttctgac aggagaccga 2640
caggaaacgg ccatcaacat tggcatgagt tgcaagctcc tgagcgagga catgatgctc 2700
ttgattgtca acgaagagtc gtcggccgca actcgtgata acatccaaaa gaagctcgat 2760
gccatcagga cgcaaggcga cggtaccatt gagatggagt ccctggcgct cgtcattgac 2820
ggcaagtccc tgacatatgc gctcgagaag gacatggaga agcttttcct cgatctcgcc 2880
atcatgtgca aggccgtcat ctgctgccgt gtgtcccccc tgcaaaaggc cctggtcgtc 2940
aagctcgtca agaagtacca gaagcagtcg attctcctcg ccattggcga cggggccaac 3000
gacgtctcca tgatccaggc ggcgcacatt ggcgtcggca tcagcggtgt tgaaggtctg 3060
caggccgctc ggagcgccga cgtggccatt gcccagttca ggtacctccg gaagctgctg 3120
cttgtccacg gcgcgtggag ttaccagcgc gtgagcaaga cgattctgtt ttcgttctac 3180
aagaacattg ccctgtatct gacgcagttc tggtacacgt tccaaaacgt cttctccggc 3240
caggtcattt acgagtcgtg gacgttgtcc ttctacaacg tcttctacac cgttcttccg 3300
ccgctggcca ttggcattct ggaccagttc atctctgcgc gcctgctcga tcgctacccc 3360
cagctgtaca tgatgggcca gcagaattcc gccttcaagc tcaaggtctt tgcgcagtgg 3420
atcgccaacg ccatctacca ctccctcctc ctctacgtct ttgccgagct catctggtac 3480
ggcgacgtga ttgacggcca ggggcagacc gacggccact gggtgtgggg aaccgccctg 3540
tacggctccg tcctgctcac cgtgctgggc aaggcggcct tggtgaccaa caactggacc 3600
aagtaccatg tcatggccat cccgggcagc atggtcatct ggtgggtgtt catcgccgtg 3660
tacggcactg tggcgcccaa ggtcaagatt tcccccgagt actttggcgt catccccaag 3720
ctgtacagca gccccgtctt ctggctgcag atattcgtcc ttgccctgct gtgtctgtcg 3780
cgcgatattg cttggaagta cgccaagcgc atgtactggc cgcagacgta ccaccacatt 3840
caggagattc aaaaatacaa cattcaggac taccggccta ggtatgtaca cgtgcccagc 3900
acagcccctc tcctcccctc ttcttgcccc aggaatccat ctgcggtttg aatagaggca 3960
tgtctatata tgagagagag ccacgcgcta acgtgccatg acaggatgga gcaattccag 4020
aaagccatcc gcaaggttcg gcaggtgcag cgtatgcgca agcagcgtgg ctatgccttt 4080
tcgcaggccg acgagagcca gacgcgcgtg cttcaggcat acgacacgac caagcaccga 4140
ggccgatatg gagaaatggc cagctcacga cctatagacg ggatataa 4188
<210> 2
<211> 12500
<212> DNA
<213> Artificial Sequence
<400> 2
aaaggacgag atggaccgcg ccaagaacgg gccgccgctg aggtttgaga tgccggcgct 60
gtttgttgcg gcgagcaagg acaatgcttt gccgccggcc atgtccaagg gcatggacgc 120
tttctacaag gaccttacca gggccgaggt ggatgctacg cattgggctt tgacgcaggc 180
tggggatgag gtcaatcggg tgattggaga gtggttgaac aaggcgctca atggtgcgac 240
caaggctgcg ttgtagaaat cgaggagaat attcaaatga tcatgaattg ggctaacata 300
aggaaacccc cgacttgctt ggatctcagc atttgctaga catctggtag cagcttgctg 360
taactccctt ttgtacatgt tgagctatga ccgtataccc ctgaatatag ttcccgtaga 420
atctagttgt gccgtccata tcgtttcgag gttgacaggt atcaagtaaa catttcttcg 480
tgactctgcc tccaacatgt ctccaaggtg ttggggatcg tgtgccgcgt ttcttgggcg 540
ttgctggtgt tgaacaaaca tgctgttgct ttgtggccac acgcacatac acacacacgc 600
cgctttgggg agattccgtt cactgcttcg cgccccttct gctttagtac cttcaagagt 660
ccattaattg attcattcct ggcgagtcat ttcacttcag agtgtttttg taagcatcaa 720
cagtcggtgc cttggaggtg gactttttgt ttggctttcc acacatggga catgctgtgt 780
gctaatgtga gcttgggtgt tcatgtgaag ggggaaaagg cggagagact cacagtccgt 840
ctggtaggca cacttctggc aataggaatg gccttgagtg attttggttt tgcactttga 900
gcacgaacta ttcccactgt cagtcaaaag cgcaatgcac atatagagaa tgcgattgcg 960
taggtaggat ggtgcacata cctggagtac tgtgcgtatg gattctttgc tgcttttgac 1020
agcagcttgc tctggaggcc cgttagcgag cattatcgag gaatgacggg aagcagtctt 1080
cgtttacctt tgacactccg gtgttgccca gagttgctga tttggagctg cctgcctttg 1140
cgctggctgg cgagccgtag tacatttcgc tcttcttctt gacctctgga gtcgcaagct 1200
tggtgctctt ggtgagcttc agacacttgc tgcacaccat cgcggcgtct gaatgggggg 1260
tttatctgat tgagtcgggt tgagtatcga tggatttgat aaggaatatg tcagatagcg 1320
ttcgatacta ttgtccgtgg ttcagcttga tggccgcatg ctcgactttc tggtgtttga 1380
tgggtgaatc gcagtggcaa ggctgacatc aacggcaacg cgaaacccgg cactccgtac 1440
ggcttccgcg gccatactgt tccgaattcc caacgaccag ctgcaaagta tcctcaaccg 1500
tgctctggca ttcggcaagg taccatgctc gcacaatctc gctggtgggg gactttgtcg 1560
caaaagggac aacgctcagg gggacccgcc aaacaggcct ctcagcagtg gagcagcagc 1620
agcacatcag tgcagttcaa ggcgaggtcc agcctgtggc atccccccaa gcgatccatg 1680
gatgcgctag agcacttgca gagagagcgc tggagccctt ggacgacgtt gaccccggac 1740
ggcccccttt caggccactt ggcgcaagag agcttccagg tcatcaaggg ttcaagacgg 1800
gctcgtatgc atcagatcaa atcaaacagc atcccagggg agcgctggag aacttgagct 1860
tacaggtgtt tggcattgat ccgtgctccc agtctataat tattacccta cgggggacct 1920
ctcgggtatc agcgccttgg tcgcagaact gcactgagct ttcgtgcccc caagattcaa 1980
atcgtcgggt ccaactgcgc ctctgtttca ctgccgacag tgctgacgta ccaaacgcct 2040
gagcctcgac agcgtcccgc tacggagtgg gagcgattta gcggcagctc gccgaaacga 2100
ggctgtgcag ggacgggaac cttcattgga ttggaacacc ttctcgaacg ctttttttta 2160
gcggaacagc atcagactct acagcgagcg gccctgccct atcgatatcg cgggaccaga 2220
ccaggtgtcg accccgatcg ttctcgagct gctgtgcgag tccgtctcct gcatacctaa 2280
cctaaggaac ctctacctat agacatccaa tacattcgca tccacccgcg agcggctgcg 2340
gtttcacatt ccagccctcc cacggacgca gcgaaacagc cgcgaaacat ccaaaaacac 2400
cacaacacac acagcttctc gggctggccc accctcatcg aagcccgcat gcgttgcccc 2460
tccgcctcag cgaccgccta accactgctc gtcctccggc atggctggac gacatcccat 2520
aggaggccat ggcgggccct cgaccaccga cgacctgctg ctcgacctgg acaatgagca 2580
gcccgtctac aacgccggcc agcggtcggc cctcaatgac gacgacctgg cgcgggccta 2640
cgagcacgac cacgacaacg acccccagag ccgcccgtcg gtgtcgtacg acgactttgt 2700
cggcgccgag ccgtcatatc ccccagcagg gcgccccggc ctggcgcagg cagcgcagcc 2760
gtcggggcag tcgtcgggcc cgtaccacgc tcagcagttc agccagtcgt cggacctcga 2820
caacttcccg cgctacgccg acgacttcga cgacgacgac atgtactacc agcacggcgg 2880
cgcggcgggc gcggggccgg cgtcggctgg cagggacaat gcgagggccc gcaacagcgt 2940
gctgtcgctg ggaggcggcc tctttggcaa gctgaagcac cgcctgggca tgggccaggg 3000
ctactccgag atggacctcc ccttgacgga gccgggccac gatcgaggcg gccccatagc 3060
gggctcgtcg cagccgccgg accagcagcc cgcgggcaag aaggcgggca acttcaagtt 3120
tggctttggc cgcggcaagc ccgatcccgc gtccctgggc ccgagaatca tccacctcaa 3180
caacccgccc gccaacgcgg ccaacaagta cgtcggcaac cacatctcga cggcaaagta 3240
caacgtcgcc acgttcctcc ccaagttcct ctttgagcag ttctccaagg tcgccaacat 3300
cttcttcctc ttcacggccg cgttgcagca gatccccgga ctgtcgccca ccaacaagta 3360
caccacaatc ggacccctgg ctgttgtgct cctggtttct gctggcaagg aattggtgga 3420
ggattaccgg agaagagtgg cggacaatgc cctcaacaca tccaaggcgc gagtcctgcg 3480
cggctcgacg tttacggaaa cgaaatggaa caccgtggcc gtgggcgacg tggttagggt 3540
cgagtccgag gagccgttcc ccgccgatct ggtgcttctg gcaagttccg agcccgaggg 3600
tctctgttat atcgaaacgg cgaacctgga tggcgagacc aacttgaaga tcaagcaggc 3660
cctccccgag acgtcgacgc tggtgtcccc cagcgaagtc agccggctgg gaggtcgcat 3720
caagtcggag cagcccaaca gcagtctgta cacgtacgaa gcgacgctga tcatgcaagc 3780
cggaggagga gaaaaggagc tggcactgaa ccctgagcag ctgcttctcc gaggtgccac 3840
tctgagaaac actccctgga tccacggcat cgtcgtcttc accggccacg agaccaagct 3900
gatgcgaaac gcgaccgcga cgccgatcaa gcggaccaag gtcgagaggc agctcaactg 3960
gctcgtgctc atgctggtcg gcatgctgct ggtgctcagc gtcatcagta ccattggaga 4020
cttggtgatg cgaggcgcca ccggcgattc gctttcgtat ctctacctgg acaagatcga 4080
cagcgctggc gttgcggcct cgacgttctt caaggacatg gtcacgtact gggtgctctt 4140
ctccgcgctg gtccccatct ccctctttgt cacggtggaa ttggtcaagt attggcacgg 4200
catcctcatc aacgacgacc tcgacatgta ctacgacaag acggatacgc cggccacttg 4260
ccgaacgtcg agtctggtcg aggagcttgg catggtcgag tacgtgttct ctgacaagac 4320
tggcacgctc acttgcaaca tgatggagtt caagcagtgc tcgattggcg gcatcatgta 4380
tgccgaagag gttcccgagg accgccgagc gagcggcgcc gacgacgaag agacggctat 4440
ttacgacttc aaggcgctcc aggccaacct gacccaaggc catccgaccg cgggcatgat 4500
tgatcatttc ctttcgctgc tcgcaacctg ccacacggtc atccccgaga tggatgaaaa 4560
gggtcagatc aagtaccaag cggcctctcc cgacgaaggt gccctggtgg ccggagcggt 4620
taccatggga tacaagttta ctgcacgaaa gccaaagtcg gtcattatag aagccaacgg 4680
gcgagagatg gaatacgagc tgctggccgt ctgcgaattc aactcgacgc gcaagcgaat 4740
gtctgccatc ttccgctgcc cggacggaaa gattcgagtc tactgcaaag gtgccgacac 4800
cgtcattctt gagcggctca acgatcagaa cccccacgtc gaaatcaccc tgcggcacct 4860
ggaggagtac gcctcggagg ggctgcggac gctctgcttg gccatgcgcg aggtgcccga 4920
acaggagtac cgcgaatggc gccagatctt tgacacggcg gcgacgacgg tgggcggcaa 4980
ccgagccgat gagctggaca aggctgccga aatcattgaa cacgactttt acctcctggg 5040
agctactgcc attgaggacc gcctgcaaga cggcgttccg gagacgatcc acacgctgca 5100
gcaagccaac atcaaggtct gggttctgac aggagaccga caggaaacgg ccatcaacat 5160
tggcatgagt tgcaagctcc tgagcgagga catgatgctc ttgattgtca acgaagagtc 5220
gtcggccgca actcgtgata acatccaaaa gaagctcgat gccatcagga cgcaaggcga 5280
cggtaccatt gagatggagt ccctggcgct cgtcattgac ggcaagtccc tgacatatgc 5340
gctcgagaag gacatggaga agcttttcct cgatctcgcc atcatgtgca aggccgtcat 5400
ctgctgccgt gtgtcccccc tgcaaaaggc cctggtcgtc aagctcgtca agaagtacca 5460
gaagcagtcg attctcctcg ccattggcga cggggccaac gacgtctcca tgatccaggc 5520
ggcgcacatt ggcgtcggca tcagcggtgt tgaaggtctg caggccgctc ggagcgccga 5580
cgtggccatt gcccagttca ggtacctccg gaagctgctg cttgtccacg gcgcgtggag 5640
ttaccagcgc gtgagcaaga cgattctgtt ttcgttctac aagaacattg ccctgtatct 5700
gacgcagttc tggtacacgt tccaaaacgt cttctccggc caggtcattt acgagtcgtg 5760
gacgttgtcc ttctacaacg tcttctacac cgttcttccg ccgctggcca ttggcattct 5820
ggaccagttc atctctgcgc gcctgctcga tcgctacccc cagctgtaca tgatgggcca 5880
gcagaattcc gccttcaagc tcaaggtctt tgcgcagtgg atcgccaacg ccatctacca 5940
ctccctcctc ctctacgtct ttgccgagct catctggtac ggcgacgtga ttgacggcca 6000
ggggcagacc gacggccact gggtgtgggg aaccgccctg tacggctccg tcctgctcac 6060
cgtgctgggc aaggcggcct tggtgaccaa caactggacc aagtaccatg tcatggccat 6120
cccgggcagc atggtcatct ggtgggtgtt catcgccgtg tacggcactg tggcgcccaa 6180
ggtcaagatt tcccccgagt actttggcgt catccccaag ctgtacagca gccccgtctt 6240
ctggctgcag atattcgtcc ttgccctgct gtgtctgtcg cgcgatattg cttggaagta 6300
cgccaagcgc atgtactggc cgcagacgta ccaccacatt caggagattc aaaaatacaa 6360
cattcaggac taccggccta ggtatgtaca cgtgcccagc acagcccctc tcctcccctc 6420
ttcttgcccc aggaatccat ctgcggtttg aatagaggca tgtctatata tgagagagag 6480
ccacgcgcta acgtgccatg acaggatgga gcaattccag aaagccatcc gcaaggttcg 6540
gcaggtgcag cgtatgcgca agcagcgtgg ctatgccttt tcgcaggccg acgagagcca 6600
gacgcgcgtg cttcaggcat acgacacgac caagcaccga ggccgatatg gagaaatggc 6660
cagctcacga cctatagacg ggatataaaa aaagcaaaga aaaaattggg gggaggaaag 6720
agcaacagtt ttgtgtttta ggggtgggct gtaatgattt ttatctgcca tcacgtctca 6780
tgtcatcaag agagagagaa aaaaacagag gagggtggtg ttactccttg ggggggtgaa 6840
aggacgagga ggagagggca agcggcacac aagggaggtg cgtccctttt gtcctcgtta 6900
tgccgattcg gaagccagac gagggctatg atggttgatt ttgtttgctg tttgcggttt 6960
ttctgaaact agctattatg ccatatatga tgtctttgtc tggggtgtct cttgttgggt 7020
gttcttttct tgacatttat tatcatggct tgttactgaa ggggatgtga gatttctagg 7080
tagaaggata ggaaggcggt tgaatggaaa tttacattga catgagatgc ttggttattt 7140
gaagtgagga gaggtaagag tgatggtagt gttggtatat ggatgatgtt gcacggtgcg 7200
atgcattgag cttgaaatga aacagccgtg gagattcgat gttcactgag aagagttggc 7260
ttgtatactg gttgggtata gatatctcgt atgtcttgtg cctcattcgc acgatgtcta 7320
ccgtacgatg aagaggaagc ttccgcctgc cggacgagct tcccatgccg gagagtaact 7380
ctctctctct aatctataat aggtactttg ccttgggcct tacggtggca ccgtttgaag 7440
cttatatcaa gtcactgaca aaagtgtgta aaggatggat aaatctccat aaacagattg 7500
tttcgaacgg accttgggtg aatatcccgt agcagatggg acaatacgac actagattat 7560
tgacaaagag tttcggagac acaatgtcac acaggacaac aacagactcc tcccccacgg 7620
ataagataga ttagagtggc ggagatccgg agatgcaccc ttctgcatga cttgacgaga 7680
agcgcaagag tctctaccag gtatttctgt aaggggactc gtcgtacgag tttgaacagc 7740
aaatacctaa gcaagagagg agtatgaact tgcacagcat tatatgtgcg actacctaga 7800
tacgctgtgt cacatgttta tatgccgcga tgctgttgta tcggcatctg ttgcattgta 7860
tacctaatta gttgtcttga tgtccttaat actatcttct aaagtactag gtagttgata 7920
ctatgaatag tctacctact ttatatcgca cgcaaggggc gaagacaatg cgtggcgttg 7980
catgaggcag tctcgcgcac cacgacacga cacaaagagc actttatagg taggtatgta 8040
cctagttttt tggctcctgt tcatcccgag gcaggtgcac tctagataga agaggactag 8100
gcagtgctgc gtttccatgg cttcagatag gtacctatct acctacctac caaccaaggt 8160
gttaccttat tttgtgtatg acagctttta ccttaggtaa tgagcagcac ttcaagacgg 8220
actctttaga agaaatcaga attcgagagc cagctcaaca acggcaagag tgatactggt 8280
atttgtcatc tgcctacatt gctggatgtg ttaaatcagg caaacctgac acaatatcgg 8340
tacacagtct caatgcctga tgcaaagcca actgatatca catccgattc tacctaaaag 8400
cagcatcatg tacgagacgg tattcttgac ctgcatcaag ctttcgcccc cccccccccc 8460
cccccccccc cccccccccc ccccccatat gcgtacgtcc cgtatcacag gcatcaaaat 8520
cccaccgata tcccatgcag gtcccccttc catctctcac agcttccccc cctctgtaac 8580
accacatgat gtacagtaca agccacgctg caccgcagct ctcctacata atgatactac 8640
tactaacacc accacataca tacagacaga ccccaatttc cccttacata tccccctccc 8700
ctcttcacac caaaaacgga aagaaaaaaa aataagagga gagagagata aggtccgtat 8760
cattggtatg agagataaca gctctgtagc aaaagattga catcttgcat gcttatcagc 8820
tggttctctt gattctgaat cctcaggcca gaagacgcgc cgacatcgct gatgtactcg 8880
agacgattgc aacccaaacc aatcacatcc atcacacttg tgcagaatgc tgcctttcag 8940
cgaaaattta accatgttca ataacattat cctttattca ttgatttctc aattgcttcc 9000
ttgccatcta tgggttctgt tcgcgtcccc agagatgcat cgccgtcttt tgataaagta 9060
tatacataag ttgactccca tgtacagttg cccaccaaac atcaaattac catccaagta 9120
cccatatgcc gtgctttata tctaacccag tggacgtgta ataatcttgt gccaagaggc 9180
cataacagtc tttgtgaagt actaagagaa acaggaggaa aagggaagtg aagaaaagga 9240
aaagaaaaag aatccacaag tcgagttcga caagatgtcg aagcgaggcg acgtaacgct 9300
ccggggtcag gattggtgga ttgcagtcac actatgcggt gcatggtgac aagcaagagc 9360
ggctgataag agaagctcga gttgggatgt tgaaaaagcg ccgtgagggg cccagattga 9420
agccgtccaa agtgggaaag gatccgaaat cccctcgctg ccggaccact aatgacagtg 9480
atcgaacagt gaaaacagtt gaaaacatca aaacttttgt tgtgcgtaag tgtgtatctc 9540
cctgaagaac gccaaaggga aaaaaaaaga aaggaagaat agaagaataa cagttgtgcg 9600
gagtgtggtg cgaatgggct cggcaacagc aaaggagccg gacgagacca ggacctcaag 9660
tcggttggag gtggcacaac agcgtgctgc cagtcgacgg cgagaccctt gccgctgggc 9720
atccgcaccc ctgtaacccc gcagtccgaa tcaatgcgcc gtttggccag aattctggca 9780
aaatgcggag gcgcggtgtg cgtcggaggt cccatcacga catctgcacg cgccagtcct 9840
tgttcgtctg cgtcttattg cctggccacc cccacagcgg tggccgacgc tcccaggcca 9900
gtctggtgat aggccgctgc gagcccagct gctgctagcc ggcgtgccgt gcgcaagggg 9960
ggggaaaggg gccgctagag acgctcgagg cggatgggac tgcagccaac cgcttcgtcc 10020
catctcaggg cctcaaacaa ttaacccccc cgccagcaca cccacctggc tgcgtccgaa 10080
atcaccgagt cagcatgggg atgacaagct cgacgctctt tggccgcgag ctgccgcctg 10140
gggtcctcga gggcagcggc cggtccatgg ccccagaccc tgcctcgtgc gagtaggtgc 10200
ccccgtaggc caggtcgagg gtgctcgggt ggctgtacag aaggctggcc gatggtcgcg 10260
tgtacgagtt gttggggctg gtagctgagc tgcggctgaa gggccagatg ccactccccg 10320
acggcgacgg ggggctgggt ggcctcacgt tgagggatcg cagggcagac atggccgagg 10380
tgtggtagtt gagcgcggtg tctggtgaag ccggcggaga gttggtgaag tgcatcgagc 10440
tgggccgtga gggcgaggcc cgtggcacaa tgtctcgcgg ctcggacccg gccaaggact 10500
cggtcaggat gcggcgctgg ttgacgtaga cagaggagta atagctgcga accgacttgg 10560
cctgcgcgga cgagtcttgg tctacccggc ggcatctaca cacatgtgtg ttagtggacg 10620
tgatcaaccc agctcctcca aggttcgtcg tcaagaagag aaacatacgc atcggagcag 10680
tacagaacca gctcgtcgtg ggtgtggaat tccttttcgc aaatcatgct gcaggaacac 10740
aaaaggtcag ttacatggcc tcagcagcgt cacaaacaac aggagtggct tccataccag 10800
tactgaggga agctctctcg ctcgtcgttg tcccaaatct ccgtgtcggt ctcgcgacca 10860
cctcgcccca acttctgggc ggcggacgga gtgtgtcgtc gagtcatggt tggtcgcttg 10920
tactgagcgg gtgttgcggt cactgccttt cgcacgtctg ttgtcgatgc ggtggcagtg 10980
taagggccgg acttgcgtcg ctggtgaggc atttggaatg cagatagaag aggagcaagg 11040
gaaaaagtgc gtgggcgaac tcgaggtgtt atcctggcag ctcggagagc gtgggggaaa 11100
actaccagga ccgtccaagg cgtgagacga ccaaaatcag ggaagccaga cagaacgctg 11160
tgctggcttt atctccggca ggcagcgcag ccaaatcagg cgggtgtatg cgacacgtcg 11220
tattggagag tgcgcgagat taataagaga gtgacgcttt gctcgacagg cgtgacttgg 11280
gctgaagaat gacgggaggt cacaccggcg tagagagggt gaagattgat cgacaggacc 11340
cggaagatgg aaggatgctg cagatcgatt cgtcgggcag atttgctgtt atccactctt 11400
ggtgttcagt tgacaggagc agagcgtcga ctgctgagta gcttaaaagg gccaaatata 11460
gcagtggtat cgacggtcag atgataagca ccgcagaggg tgagatgagg tggatgggag 11520
ggcgtttggt gtaagtggtg gcacgggatg aaggtctagt gctgggttga ccggaggctg 11580
agctggactg tgatgtgtcg tcgataatgg ggtggtggtg taaggcgtat tcgcagattg 11640
atggaggaag ggaaaagaac ggatgaggaa gtagatttga acgagagtga gaggaggaag 11700
aggaggagga agaggtcgga aaagactggc gtgtgagacg cttttgttgt cgtgcttctg 11760
cttctccgta tttgtgcagg ctgtaagagg tacttgtata atatgcaatc tgatggcagc 11820
cgaaagcgga gactcgcagt tcactgcttg gtgacaaagt ttccagcagg gcgatcggcg 11880
cggacgggag taactttgcg tccagggcgg gtgccagcag cagcagcagg taccgatggt 11940
gacacactgt cgacgccggg ctccacaatg tcgcgatagt ggtactttgg ccctcgactc 12000
ggactttgct tggggggggc aggcagcgat gactcttttg tttttgtggg ctctcttgtc 12060
tccttttttc tttcttgcgt taagcttctt tttgtgaatg ctattttttt ttcttctcct 12120
ttattccgct ttaatatatt ttccccttca gaaacagaaa gaagctttcc aatgtttcaa 12180
aataaaacgt aaattgtgga acacagtctg gcaggctctt gtcgaagtcg ggcgtggtgc 12240
gaatcgctcg gatgaagcct cggtggtagg gctggactcg ttcgggcgga tgtactaccc 12300
agtactcgtg tggaggtacc tgtaagacgg gatcgcgccg gagaggtact tgtgtgcaca 12360
ggtgggagcg gtcgcaaggc cgtagcgttt attgagttgc tgacgtgctt atgggccaag 12420
attcgtacag tattagaagc tggagcacga ataataccca agcatggggt gcagcagttg 12480
gtttcagttg cttgtcttgc 12500
<210> 3
<211> 8188
<212> DNA
<213> Artificial Sequence
<400> 3
ctccaaggtg ttggggatcg tgtgccgcgt ttcttgggcg ttgctggtgt tgaacaaaca 60
tgctgttgct ttgtggccac acgcacatac acacacacgc cgctttgggg agattccgtt 120
cactgcttcg cgccccttct gctttagtac cttcaagagt ccattaattg attcattcct 180
ggcgagtcat ttcacttcag agtgtttttg taagcatcaa cagtcggtgc cttggaggtg 240
gactttttgt ttggctttcc acacatggga catgctgtgt gctaatgtga gcttgggtgt 300
tcatgtgaag ggggaaaagg cggagagact cacagtccgt ctggtaggca cacttctggc 360
aataggaatg gccttgagtg attttggttt tgcactttga gcacgaacta ttcccactgt 420
cagtcaaaag cgcaatgcac atatagagaa tgcgattgcg taggtaggat ggtgcacata 480
cctggagtac tgtgcgtatg gattctttgc tgcttttgac agcagcttgc tctggaggcc 540
cgttagcgag cattatcgag gaatgacggg aagcagtctt cgtttacctt tgacactccg 600
gtgttgccca gagttgctga tttggagctg cctgcctttg cgctggctgg cgagccgtag 660
tacatttcgc tcttcttctt gacctctgga gtcgcaagct tggtgctctt ggtgagcttc 720
agacacttgc tgcacaccat cgcggcgtct gaatgggggg tttatctgat tgagtcgggt 780
tgagtatcga tggatttgat aaggaatatg tcagatagcg ttcgatacta ttgtccgtgg 840
ttcagcttga tggccgcatg ctcgactttc tggtgtttga tgggtgaatc gcagtggcaa 900
ggctgacatc aacggcaacg cgaaacccgg cactccgtac ggcttccgcg gccatactgt 960
tccgaattcc caacgaccag ctgcaaagta tcctcaaccg tgctctggca ttcggcaagg 1020
taccatgctc gcacaatctc gctggtgggg gactttgtcg caaaagggac aacgctcagg 1080
gggacccgcc aaacaggcct ctcagcagtg gagcagcagc agcacatcag tgcagttcaa 1140
ggcgaggtcc agcctgtggc atccccccaa gcgatccatg gatgcgctag agcacttgca 1200
gagagagcgc tggagccctt ggacgacgtt gaccccggac ggcccccttt caggccactt 1260
ggcgcaagag agcttccagg tcatcaaggg ttcaagacgg gctcgtatgc atcagatcaa 1320
atcaaacagc atcccagggg agcgctggag aacttgagct tacaggtgtt tggcattgat 1380
ccgtgctccc agtctataat tattacccta cgggggacct ctcgggtatc agcgccttgg 1440
tcgcagaact gcactgagct ttcgtgcccc caagattcaa atcgtcgggt ccaactgcgc 1500
ctctgtttca ctgccgacag tgctgacgta ccaaacgcct gagcctcgac agcgtcccgc 1560
tacggagtgg gagcgattta gcggcagctc gccgaaacga ggctgtgcag ggacgggaac 1620
cttcattgga ttggaacacc ttctcgaacg ctttttttta gcggaacagc atcagactct 1680
acagcgagcg gccctgccct atcgatatcg cgggaccaga ccaggtgtcg accccgatcg 1740
ttctcgagct gctgtgcgag tccgtctcct gcatacctaa cctaaggaac ctctacctat 1800
agacatccaa tacattcgca tccacccgcg agcggctgcg gtttcacatt ccagccctcc 1860
cacggacgca gcgaaacagc cgcgaaacat ccaaaaacac cacaacacac acagcttctc 1920
gggctggccc accctcatcg aagcccgcat gcgttgcccc tccgcctcag cgaccgccta 1980
accactgctc gtcctccggc atggctggac gacatcccat aggaggccat ggcgggccct 2040
cgaccaccga cgacctgctg ctcgacctgg acaatgagca gcccgtctac aacgccggcc 2100
agcggtcggc cctcaatgac gacgacctgg cgcgggccta cgagcacgac cacgacaacg 2160
acccccagag ccgcccgtcg gtgtcgtacg acgactttgt cggcgccgag ccgtcatatc 2220
ccccagcagg gcgccccggc ctggcgcagg cagcgcagcc gtcggggcag tcgtcgggcc 2280
cgtaccacgc tcagcagttc agccagtcgt cggacctcga caacttcccg cgctacgccg 2340
acgacttcga cgacgacgac atgtactacc agcacggcgg cgcggcgggc gcggggccgg 2400
cgtcggctgg cagggacaat gcgagggccc gcaacagcgt gctgtcgctg ggaggcggcc 2460
tctttggcaa gctgaagcac cgcctgggca tgggccaggg ctactccgag atggacctcc 2520
ccttgacgga gccgggccac gatcgaggcg gccccatagc gggctcgtcg cagccgccgg 2580
accagcagcc cgcgggcaag aaggcgggca acttcaagtt tggctttggc cgcggcaagc 2640
ccgatcccgc gtccctgggc ccgagaatca tccacctcaa caacccgccc gccaacgcgg 2700
ccaacaagta cgtcggcaac cacatctcga cggcaaagta caacgtcgcc acgttcctcc 2760
ccaagttcct ctttgagcag ttctccaagg tcgccaacat cttcttcctc ttcacggccg 2820
cgttgcagca gatccccgga ctgtcgccca ccaacaagta caccacaatc ggacccctgg 2880
ctgttgtgct cctggtttct gctggcaagg aattggtgga ggattaccgg agaagagtgg 2940
cggacaatgc cctcaacaca tccaaggcgc gagtcctgcg cggctcgacg tttacggaaa 3000
cgaaatggaa caccgtggcc gtgggcgacg tggttagggt cgagtccgag gagccgttcc 3060
ccgccgatct ggtgcttctg gcaagttccg agcccgaggg tctctgttat atcgaaacgg 3120
cgaacctgga tggcgagacc aacttgaaga tcaagcaggc cctccccgag acgtcgacgc 3180
tggtgtcccc cagcgaagtc agccggctgg gaggtcgcat caagtcggag cagcccaaca 3240
gcagtctgta cacgtacgaa gcgacgctga tcatgcaagc cggaggagga gaaaaggagc 3300
tggcactgaa ccctgagcag ctgcttctcc gaggtgccac tctgagaaac actccctgga 3360
tccacggcat cgtcgtcttc accggccacg agaccaagct gatgcgaaac gcgaccgcga 3420
cgccgatcaa gcggaccaag gtcgagaggc agctcaactg gctcgtgctc atgctggtcg 3480
gcatgctgct ggtgctcagc gtcatcagta ccattggaga cttggtgatg cgaggcgcca 3540
ccggcgattc gctttcgtat ctctacctgg acaagatcga cagcgctggc gttgcggcct 3600
cgacgttctt caaggacatg gtcacgtact gggtgctctt ctccgcgctg gtccccatct 3660
ccctctttgt cacggtggaa ttggtcaagt attggcacgg catcctcatc aacgacgacc 3720
tcgacatgta ctacgacaag acggatacgc cggccacttg ccgaacgtcg agtctggtcg 3780
aggagcttgg catggtcgag tacgtgttct ctgacaagac tggcacgctc acttgcaaca 3840
tgatggagtt caagcagtgc tcgattggcg gcatcatgta tgccgaagag gttcccgagg 3900
accgccgagc gagcggcgcc gacgacgaag agacggctat ttacgacttc aaggcgctcc 3960
aggccaacct gacccaaggc catccgaccg cgggcatgat tgatcatttc ctttcgctgc 4020
tcgcaacctg ccacacggtc atccccgaga tggatgaaaa gggtcagatc aagtaccaag 4080
cggcctctcc cgacgaaggt gccctggtgg ccggagcggt taccatggga tacaagttta 4140
ctgcacgaaa gccaaagtcg gtcattatag aagccaacgg gcgagagatg gaatacgagc 4200
tgctggccgt ctgcgaattc aactcgacgc gcaagcgaat gtctgccatc ttccgctgcc 4260
cggacggaaa gattcgagtc tactgcaaag gtgccgacac cgtcattctt gagcggctca 4320
acgatcagaa cccccacgtc gaaatcaccc tgcggcacct ggaggagtac gcctcggagg 4380
ggctgcggac gctctgcttg gccatgcgcg aggtgcccga acaggagtac cgcgaatggc 4440
gccagatctt tgacacggcg gcgacgacgg tgggcggcaa ccgagccgat gagctggaca 4500
aggctgccga aatcattgaa cacgactttt acctcctggg agctactgcc attgaggacc 4560
gcctgcaaga cggcgttccg gagacgatcc acacgctgca gcaagccaac atcaaggtct 4620
gggttctgac aggagaccga caggaaacgg ccatcaacat tggcatgagt tgcaagctcc 4680
tgagcgagga catgatgctc ttgattgtca acgaagagtc gtcggccgca actcgtgata 4740
acatccaaaa gaagctcgat gccatcagga cgcaaggcga cggtaccatt gagatggagt 4800
ccctggcgct cgtcattgac ggcaagtccc tgacatatgc gctcgagaag gacatggaga 4860
agcttttcct cgatctcgcc atcatgtgca aggccgtcat ctgctgccgt gtgtcccccc 4920
tgcaaaaggc cctggtcgtc aagctcgtca agaagtacca gaagcagtcg attctcctcg 4980
ccattggcga cggggccaac gacgtctcca tgatccaggc ggcgcacatt ggcgtcggca 5040
tcagcggtgt tgaaggtctg caggccgctc ggagcgccga cgtggccatt gcccagttca 5100
ggtacctccg gaagctgctg cttgtccacg gcgcgtggag ttaccagcgc gtgagcaaga 5160
cgattctgtt ttcgttctac aagaacattg ccctgtatct gacgcagttc tggtacacgt 5220
tccaaaacgt cttctccggc caggtcattt acgagtcgtg gacgttgtcc ttctacaacg 5280
tcttctacac cgttcttccg ccgctggcca ttggcattct ggaccagttc atctctgcgc 5340
gcctgctcga tcgctacccc cagctgtaca tgatgggcca gcagaattcc gccttcaagc 5400
tcaaggtctt tgcgcagtgg atcgccaacg ccatctacca ctccctcctc ctctacgtct 5460
ttgccgagct catctggtac ggcgacgtga ttgacggcca ggggcagacc gacggccact 5520
gggtgtgggg aaccgccctg tacggctccg tcctgctcac cgtgctgggc aaggcggcct 5580
tggtgaccaa caactggacc aagtaccatg tcatggccat cccgggcagc atggtcatct 5640
ggtgggtgtt catcgccgtg tacggcactg tggcgcccaa ggtcaagatt tcccccgagt 5700
actttggcgt catccccaag ctgtacagca gccccgtctt ctggctgcag atattcgtcc 5760
ttgccctgct gtgtctgtcg cgcgatattg cttggaagta cgccaagcgc atgtactggc 5820
cgcagacgta ccaccacatt caggagattc aaaaatacaa cattcaggac taccggccta 5880
ggtatgtaca cgtgcccagc acagcccctc tcctcccctc ttcttgcccc aggaatccat 5940
ctgcggtttg aatagaggca tgtctatata tgagagagag ccacgcgcta acgtgccatg 6000
acaggatgga gcaattccag aaagccatcc gcaaggttcg gcaggtgcag cgtatgcgca 6060
agcagcgtgg ctatgccttt tcgcaggccg acgagagcca gacgcgcgtg cttcaggcat 6120
acgacacgac caagcaccga ggccgatatg gagaaatggc cagctcacga cctatagacg 6180
ggatataaaa aaagcaaaga aaaaattggg gggaggaaag agcaacagtt ttgtgtttta 6240
ggggtgggct gtaatgattt ttatctgcca tcacgtctca tgtcatcaag agagagagaa 6300
aaaaacagag gagggtggtg ttactccttg ggggggtgaa aggacgagga ggagagggca 6360
agcggcacac aagggaggtg cgtccctttt gtcctcgtta tgccgattcg gaagccagac 6420
gagggctatg atggttgatt ttgtttgctg tttgcggttt ttctgaaact agctattatg 6480
ccatatatga tgtctttgtc tggggtgtct cttgttgggt gttcttttct tgacatttat 6540
tatcatggct tgttactgaa ggggatgtga gatttctagg tagaaggata ggaaggcggt 6600
tgaatggaaa tttacattga catgagatgc ttggttattt gaagtgagga gaggtaagag 6660
tgatggtagt gttggtatat ggatgatgtt gcacggtgcg atgcattgag cttgaaatga 6720
aacagccgtg gagattcgat gttcactgag aagagttggc ttgtatactg gttgggtata 6780
gatatctcgt atgtcttgtg cctcattcgc acgatgtcta ccgtacgatg aagaggaagc 6840
ttccgcctgc cggacgagct tcccatgccg gagagtaact ctctctctct aatctataat 6900
aggtactttg ccttgggcct tacggtggca ccgtttgaag cttatatcaa gtcactgaca 6960
aaagtgtgta aaggatggat aaatctccat aaacagattg tttcgaacgg accttgggtg 7020
aatatcccgt agcagatggg acaatacgac actagattat tgacaaagag tttcggagac 7080
acaatgtcac acaggacaac aacagactcc tcccccacgg ataagataga ttagagtggc 7140
ggagatccgg agatgcaccc ttctgcatga cttgacgaga agcgcaagag tctctaccag 7200
gtatttctgt aaggggactc gtcgtacgag tttgaacagc aaatacctaa gcaagagagg 7260
agtatgaact tgcacagcat tatatgtgcg actacctaga tacgctgtgt cacatgttta 7320
tatgccgcga tgctgttgta tcggcatctg ttgcattgta tacctaatta gttgtcttga 7380
tgtccttaat actatcttct aaagtactag gtagttgata ctatgaatag tctacctact 7440
ttatatcgca cgcaaggggc gaagacaatg cgtggcgttg catgaggcag tctcgcgcac 7500
cacgacacga cacaaagagc actttatagg taggtatgta cctagttttt tggctcctgt 7560
tcatcccgag gcaggtgcac tctagataga agaggactag gcagtgctgc gtttccatgg 7620
cttcagatag gtacctatct acctacctac caaccaaggt gttaccttat tttgtgtatg 7680
acagctttta ccttaggtaa tgagcagcac ttcaagacgg actctttaga agaaatcaga 7740
attcgagagc cagctcaaca acggcaagag tgatactggt atttgtcatc tgcctacatt 7800
gctggatgtg ttaaatcagg caaacctgac acaatatcgg tacacagtct caatgcctga 7860
tgcaaagcca actgatatca catccgattc tacctaaaag cagcatcatg tacgagacgg 7920
tattcttgac ctgcatcaag ctttcgcccc cccccccccc cccccccccc cccccccccc 7980
ccccccatat gcgtacgtcc cgtatcacag gcatcaaaat cccaccgata tcccatgcag 8040
gtcccccttc catctctcac agcttccccc cctctgtaac accacatgat gtacagtaca 8100
agccacgctg caccgcagct ctcctacata atgatactac tactaacacc accacataca 8160
tacagacaga ccccaatttc cccttaca 8188
<210> 4
<211> 5913
<212> DNA
<213> Artificial Sequence
<400> 4
ctccaaggtg ttggggatcg tgtgccgcgt ttcttgggcg ttgctggtgt tgaacaaaca 60
tgctgttgct ttgtggccac acgcacatac acacacacgc cgctttgggg agattccgtt 120
cactgcttcg cgccccttct gctttagtac cttcaagagt ccattaattg attcattcct 180
ggcgagtcat ttcacttcag agtgtttttg taagcatcaa cagtcggtgc cttggaggtg 240
gactttttgt ttggctttcc acacatggga catgctgtgt gctaatgtga gcttgggtgt 300
tcatgtgaag ggggaaaagg cggagagact cacagtccgt ctggtaggca cacttctggc 360
aataggaatg gccttgagtg attttggttt tgcactttga gcacgaacta ttcccactgt 420
cagtcaaaag cgcaatgcac atatagagaa tgcgattgcg taggtaggat ggtgcacata 480
cctggagtac tgtgcgtatg gattctttgc tgcttttgac agcagcttgc tctggaggcc 540
cgttagcgag cattatcgag gaatgacggg aagcagtctt cgtttacctt tgacactccg 600
gtgttgccca gagttgctga tttggagctg cctgcctttg cgctggctgg cgagccgtag 660
tacatttcgc tcttcttctt gacctctgga gtcgcaagct tggtgctctt ggtgagcttc 720
agacacttgc tgcacaccat cgcggcgtct gaatgggggg tttatctgat tgagtcgggt 780
tgagtatcga tggatttgat aaggaatatg tcagatagcg ttcgatacta ttgtccgtgg 840
ttcagcttga tggccgcatg ctcgactttc tggtgtttga tgggtgaatc gcagtggcaa 900
ggctgacatc aacggcaacg cgaaacccgg cactccgtac ggcttccgcg gccatactgt 960
tccgaattcc caacgaccag ctgcaaagta tcctcaaccg tgctctggca ttcggcaagg 1020
taccatgctc gcacaatctc gctggtgggg gactttgtcg caaaagggac aacgctcagg 1080
gggacccgcc aaacaggcct ctcagcagtg gagcagcagc agcacatcag tgcagttcaa 1140
ggcgaggtcc agcctgtggc atccccccaa gcgatccatg gatgcgctag agcacttgca 1200
gagagagcgc tggagccctt ggacgacgtt gaccccggac ggcccccttt caggccactt 1260
ggcgcaagag agcttccagg tcatcaaggg ttcaagacgg gctcgtatgc atcagatcaa 1320
atcaaacagc atcccagggg agcgctggag aacttgagct tacaggtgtt tggcattgat 1380
ccgtgctccc agtctataat tattacccta cgggggacct ctcgggtatc agcgccttgg 1440
tcgcagaact gcactgagct ttcgtgcccc caagattcaa atcgtcgggt ccaactgcgc 1500
ctctgtttca ctgccgacag tgctgacgta ccaaacgcct gagcctcgac agcgtcccgc 1560
tacggagtgg gagcgattta gcggcagctc gccgaaacga ggctgtgcag ggacgggaac 1620
cttcattgga ttggaacacc ttctcgaacg ctttttttta gcggaacagc atcagactct 1680
acagcgagcg gccctgccct atcgatatcg cgggaccaga ccaggtgtcg accccgatcg 1740
ttctcgagct gctgtgcgag tccgtctcct gcatacctaa cctaaggaac ctctacctat 1800
agacatccaa tacattcgca tccacccgcg agcggctgcg gtttcacatt ccagccctcc 1860
cacggacgca gcgaaacagc cgcgaaacat ccaaaaacac cacaacacac acagcttctc 1920
gggctggccc accctcatcg aagcccgcat gcgttgcccc tccgcctcag cgaccgccta 1980
accactgctc gtcctccggc ccccaaagtc gcaatatcgg gtatcgccgc cggcattgaa 2040
tcgccttctc cgctagcatc gactactgct gctctgctct cgttgccagc gctgctccct 2100
agaattttga ccaggggacg agcccgacat taaagcaact ccctcgcctc gagacgactc 2160
ggatcgcacg aaattctccc aatcgccgac agttcctact cctcttcctc ccgcacggct 2220
gtcgcgcttc caacgtcatt cgcacagcag aattgtgcca tctctctctt ttttttcccc 2280
ccctctaaac cgccacaacg gcaccctaag ggttaaacta tccaaccagc cgcagcctca 2340
gcctctctca gcctcatcag ccatggcacc acacccgacg ctcaaggcca ccttcgcggc 2400
caggagcgag acggcgacgc acccgctgac ggcttacctg ttcaagctca tggacctcaa 2460
ggcgtccaac ctgtgcctga gcgccgacgt gccgacagcg cgcgagctgc tgtacctggc 2520
cgacaagatt ggcccgtcga ttgtcgtgct caagacgcac tacgacatgg tctcgggctg 2580
ggacttccac ccggagacgg gcacgggagc ccagctggcg tcgctggcgc gcaagcacgg 2640
cttcctcatc ttcgaggacc gcaagtttgg cgacattggc cacaccgtcg agctgcagta 2700
cacgggcggg tcggcgcgca tcatcgactg ggcgcacatt gtcaacgtca acatggtgcc 2760
cggcaaggcg tcggtggcct cgctggccca gggcgccaag cgctggctcg agcgctaccc 2820
ctgcgaggtc aagacgtccg tcaccgtcgg cacgcccacc atggactcgt ttgacgacga 2880
cgccgactcc agggacgccg agcccgccgg cgccgtcaac ggcatgggct ccattggcgt 2940
cctggacaag cccatctact cgaaccggtc cggcgacggc cgcaagggca gcatcgtctc 3000
catcaccacc gtcacccagc agtacgagtc cgtctcctcg ccccggttaa caaaggccat 3060
cgccgagggc gacgagtcgc tcttcccggg catcgaggag gcgccgctga gccgcggcct 3120
cctgatcctc gcccaaatgt ccagccaggg caacttcatg aacaaggagt acacgcaggc 3180
ctgcgtcgag gccgcccggg agcacaagga ctttgtcatg ggcttcatct cgcaggagac 3240
gctcaacacc gagcccgacg atgcctttat ccacatgacg cccggctgcc agctgccccc 3300
cgaagacgag gaccagcaga ccaacggatc ggtcggtgga gacggccagg gccagcagta 3360
caacacgccg cacaagctga ttggcatcgc cggcagcgac attgccattg tgggccgggg 3420
catcctcaag gcctcagacc ccgtagagga ggcagagcgg taccgatcag cagcgtggaa 3480
agcctacacc gagaggctgc tgcgataggg gagggaaggg aagaaagaag taaagaaagg 3540
catttagcaa gaagggggaa aagggaggga ggacaaacgg agctgagaaa gagctcttgt 3600
ccaaagcccg gcatcataga atgcagctgt atttaggcga cctctttttc catcttgtcg 3660
atttttgtta tgacgtacca gttgggatga tggatgattg taccccagct gcgattgatg 3720
tgtatctttg catgcaacaa cacgcgatgg cggaggcgaa ctgcacattg gaaggttcat 3780
atatggtcct gacatatctg gtggatctgg aagcatggaa ttgtattttt gatttggcat 3840
ttgcttttgc gcgtggaggg aacatatcac cctcgggcat ttttcatttg gtaggatggt 3900
ttggatgcag ttgaaaaagc aaagaaaaaa ttggggggag gaaagagcaa cagttttgtg 3960
ttttaggggt gggctgtaat gatttttatc tgccatcacg tctcatgtca tcaagagaga 4020
gagaaaaaaa cagaggaggg tggtgttact ccttgggggg gtgaaaggac gaggaggaga 4080
gggcaagcgg cacacaaggg aggtgcgtcc cttttgtcct cgttatgccg attcggaagc 4140
cagacgaggg ctatgatggt tgattttgtt tgctgtttgc ggtttttctg aaactagcta 4200
ttatgccata tatgatgtct ttgtctgggg tgtctcttgt tgggtgttct tttcttgaca 4260
tttattatca tggcttgtta ctgaagggga tgtgagattt ctaggtagaa ggataggaag 4320
gcggttgaat ggaaatttac attgacatga gatgcttggt tatttgaagt gaggagaggt 4380
aagagtgatg gtagtgttgg tatatggatg atgttgcacg gtgcgatgca ttgagcttga 4440
aatgaaacag ccgtggagat tcgatgttca ctgagaagag ttggcttgta tactggttgg 4500
gtatagatat ctcgtatgtc ttgtgcctca ttcgcacgat gtctaccgta cgatgaagag 4560
gaagcttccg cctgccggac gagcttccca tgccggagag taactctctc tctctaatct 4620
ataataggta ctttgccttg ggccttacgg tggcaccgtt tgaagcttat atcaagtcac 4680
tgacaaaagt gtgtaaagga tggataaatc tccataaaca gattgtttcg aacggacctt 4740
gggtgaatat cccgtagcag atgggacaat acgacactag attattgaca aagagtttcg 4800
gagacacaat gtcacacagg acaacaacag actcctcccc cacggataag atagattaga 4860
gtggcggaga tccggagatg cacccttctg catgacttga cgagaagcgc aagagtctct 4920
accaggtatt tctgtaaggg gactcgtcgt acgagtttga acagcaaata cctaagcaag 4980
agaggagtat gaacttgcac agcattatat gtgcgactac ctagatacgc tgtgtcacat 5040
gtttatatgc cgcgatgctg ttgtatcggc atctgttgca ttgtatacct aattagttgt 5100
cttgatgtcc ttaatactat cttctaaagt actaggtagt tgatactatg aatagtctac 5160
ctactttata tcgcacgcaa ggggcgaaga caatgcgtgg cgttgcatga ggcagtctcg 5220
cgcaccacga cacgacacaa agagcacttt ataggtaggt atgtacctag ttttttggct 5280
cctgttcatc ccgaggcagg tgcactctag atagaagagg actaggcagt gctgcgtttc 5340
catggcttca gataggtacc tatctaccta cctaccaacc aaggtgttac cttattttgt 5400
gtatgacagc ttttacctta ggtaatgagc agcacttcaa gacggactct ttagaagaaa 5460
tcagaattcg agagccagct caacaacggc aagagtgata ctggtatttg tcatctgcct 5520
acattgctgg atgtgttaaa tcaggcaaac ctgacacaat atcggtacac agtctcaatg 5580
cctgatgcaa agccaactga tatcacatcc gattctacct aaaagcagca tcatgtacga 5640
gacggtattc ttgacctgca tcaagctttc gccccccccc cccccatatg cgtacgtccc 5700
gtatcacagg catcaaaatc ccaccgatat cccatgcagg tcccccttcc atctctcaca 5760
gcttcccccc ctctgtaaca ccacatgatg tacagtacaa gccacgctgc accgcagctc 5820
tcctacataa tgatactact actaacacca ccacatacat acagacagac cccaatttcc 5880
ccttacatat ccccctcccc tcttcacacc aaa 5913
<210> 5
<211> 10225
<212> DNA
<213> Artificial Sequence
<400> 5
aaaggacgag atggaccgcg ccaagaacgg gccgccgctg aggtttgaga tgccggcgct 60
gtttgttgcg gcgagcaagg acaatgcttt gccgccggcc atgtccaagg gcatggacgc 120
tttctacaag gaccttacca gggccgaggt ggatgctacg cattgggctt tgacgcaggc 180
tggggatgag gtcaatcggg tgattggaga gtggttgaac aaggcgctca atggtgcgac 240
caaggctgcg ttgtagaaat cgaggagaat attcaaatga tcatgaattg ggctaacata 300
aggaaacccc cgacttgctt ggatctcagc atttgctaga catctggtag cagcttgctg 360
taactccctt ttgtacatgt tgagctatga ccgtataccc ctgaatatag ttcccgtaga 420
atctagttgt gccgtccata tcgtttcgag gttgacaggt atcaagtaaa catttcttcg 480
tgactctgcc tccaacatgt ctccaaggtg ttggggatcg tgtgccgcgt ttcttgggcg 540
ttgctggtgt tgaacaaaca tgctgttgct ttgtggccac acgcacatac acacacacgc 600
cgctttgggg agattccgtt cactgcttcg cgccccttct gctttagtac cttcaagagt 660
ccattaattg attcattcct ggcgagtcat ttcacttcag agtgtttttg taagcatcaa 720
cagtcggtgc cttggaggtg gactttttgt ttggctttcc acacatggga catgctgtgt 780
gctaatgtga gcttgggtgt tcatgtgaag ggggaaaagg cggagagact cacagtccgt 840
ctggtaggca cacttctggc aataggaatg gccttgagtg attttggttt tgcactttga 900
gcacgaacta ttcccactgt cagtcaaaag cgcaatgcac atatagagaa tgcgattgcg 960
taggtaggat ggtgcacata cctggagtac tgtgcgtatg gattctttgc tgcttttgac 1020
agcagcttgc tctggaggcc cgttagcgag cattatcgag gaatgacggg aagcagtctt 1080
cgtttacctt tgacactccg gtgttgccca gagttgctga tttggagctg cctgcctttg 1140
cgctggctgg cgagccgtag tacatttcgc tcttcttctt gacctctgga gtcgcaagct 1200
tggtgctctt ggtgagcttc agacacttgc tgcacaccat cgcggcgtct gaatgggggg 1260
tttatctgat tgagtcgggt tgagtatcga tggatttgat aaggaatatg tcagatagcg 1320
ttcgatacta ttgtccgtgg ttcagcttga tggccgcatg ctcgactttc tggtgtttga 1380
tgggtgaatc gcagtggcaa ggctgacatc aacggcaacg cgaaacccgg cactccgtac 1440
ggcttccgcg gccatactgt tccgaattcc caacgaccag ctgcaaagta tcctcaaccg 1500
tgctctggca ttcggcaagg taccatgctc gcacaatctc gctggtgggg gactttgtcg 1560
caaaagggac aacgctcagg gggacccgcc aaacaggcct ctcagcagtg gagcagcagc 1620
agcacatcag tgcagttcaa ggcgaggtcc agcctgtggc atccccccaa gcgatccatg 1680
gatgcgctag agcacttgca gagagagcgc tggagccctt ggacgacgtt gaccccggac 1740
ggcccccttt caggccactt ggcgcaagag agcttccagg tcatcaaggg ttcaagacgg 1800
gctcgtatgc atcagatcaa atcaaacagc atcccagggg agcgctggag aacttgagct 1860
tacaggtgtt tggcattgat ccgtgctccc agtctataat tattacccta cgggggacct 1920
ctcgggtatc agcgccttgg tcgcagaact gcactgagct ttcgtgcccc caagattcaa 1980
atcgtcgggt ccaactgcgc ctctgtttca ctgccgacag tgctgacgta ccaaacgcct 2040
gagcctcgac agcgtcccgc tacggagtgg gagcgattta gcggcagctc gccgaaacga 2100
ggctgtgcag ggacgggaac cttcattgga ttggaacacc ttctcgaacg ctttttttta 2160
gcggaacagc atcagactct acagcgagcg gccctgccct atcgatatcg cgggaccaga 2220
ccaggtgtcg accccgatcg ttctcgagct gctgtgcgag tccgtctcct gcatacctaa 2280
cctaaggaac ctctacctat agacatccaa tacattcgca tccacccgcg agcggctgcg 2340
gtttcacatt ccagccctcc cacggacgca gcgaaacagc cgcgaaacat ccaaaaacac 2400
cacaacacac acagcttctc gggctggccc accctcatcg aagcccgcat gcgttgcccc 2460
tccgcctcag cgaccgccta accactgctc gtcctccggc ccccaaagtc gcaatatcgg 2520
gtatcgccgc cggcattgaa tcgccttctc cgctagcatc gactactgct gctctgctct 2580
cgttgccagc gctgctccct agaattttga ccaggggacg agcccgacat taaagcaact 2640
ccctcgcctc gagacgactc ggatcgcacg aaattctccc aatcgccgac agttcctact 2700
cctcttcctc ccgcacggct gtcgcgcttc caacgtcatt cgcacagcag aattgtgcca 2760
tctctctctt ttttttcccc ccctctaaac cgccacaacg gcaccctaag ggttaaacta 2820
tccaaccagc cgcagcctca gcctctctca gcctcatcag ccatggcacc acacccgacg 2880
ctcaaggcca ccttcgcggc caggagcgag acggcgacgc acccgctgac ggcttacctg 2940
ttcaagctca tggacctcaa ggcgtccaac ctgtgcctga gcgccgacgt gccgacagcg 3000
cgcgagctgc tgtacctggc cgacaagatt ggcccgtcga ttgtcgtgct caagacgcac 3060
tacgacatgg tctcgggctg ggacttccac ccggagacgg gcacgggagc ccagctggcg 3120
tcgctggcgc gcaagcacgg cttcctcatc ttcgaggacc gcaagtttgg cgacattggc 3180
cacaccgtcg agctgcagta cacgggcggg tcggcgcgca tcatcgactg ggcgcacatt 3240
gtcaacgtca acatggtgcc cggcaaggcg tcggtggcct cgctggccca gggcgccaag 3300
cgctggctcg agcgctaccc ctgcgaggtc aagacgtccg tcaccgtcgg cacgcccacc 3360
atggactcgt ttgacgacga cgccgactcc agggacgccg agcccgccgg cgccgtcaac 3420
ggcatgggct ccattggcgt cctggacaag cccatctact cgaaccggtc cggcgacggc 3480
cgcaagggca gcatcgtctc catcaccacc gtcacccagc agtacgagtc cgtctcctcg 3540
ccccggttaa caaaggccat cgccgagggc gacgagtcgc tcttcccggg catcgaggag 3600
gcgccgctga gccgcggcct cctgatcctc gcccaaatgt ccagccaggg caacttcatg 3660
aacaaggagt acacgcaggc ctgcgtcgag gccgcccggg agcacaagga ctttgtcatg 3720
ggcttcatct cgcaggagac gctcaacacc gagcccgacg atgcctttat ccacatgacg 3780
cccggctgcc agctgccccc cgaagacgag gaccagcaga ccaacggatc ggtcggtgga 3840
gacggccagg gccagcagta caacacgccg cacaagctga ttggcatcgc cggcagcgac 3900
attgccattg tgggccgggg catcctcaag gcctcagacc ccgtagagga ggcagagcgg 3960
taccgatcag cagcgtggaa agcctacacc gagaggctgc tgcgataggg gagggaaggg 4020
aagaaagaag taaagaaagg catttagcaa gaagggggaa aagggaggga ggacaaacgg 4080
agctgagaaa gagctcttgt ccaaagcccg gcatcataga atgcagctgt atttaggcga 4140
cctctttttc catcttgtcg atttttgtta tgacgtacca gttgggatga tggatgattg 4200
taccccagct gcgattgatg tgtatctttg catgcaacaa cacgcgatgg cggaggcgaa 4260
ctgcacattg gaaggttcat atatggtcct gacatatctg gtggatctgg aagcatggaa 4320
ttgtattttt gatttggcat ttgcttttgc gcgtggaggg aacatatcac cctcgggcat 4380
ttttcatttg gtaggatggt ttggatgcag ttgaaaaagc aaagaaaaaa ttggggggag 4440
gaaagagcaa cagttttgtg ttttaggggt gggctgtaat gatttttatc tgccatcacg 4500
tctcatgtca tcaagagaga gagaaaaaaa cagaggaggg tggtgttact ccttgggggg 4560
gtgaaaggac gaggaggaga gggcaagcgg cacacaaggg aggtgcgtcc cttttgtcct 4620
cgttatgccg attcggaagc cagacgaggg ctatgatggt tgattttgtt tgctgtttgc 4680
ggtttttctg aaactagcta ttatgccata tatgatgtct ttgtctgggg tgtctcttgt 4740
tgggtgttct tttcttgaca tttattatca tggcttgtta ctgaagggga tgtgagattt 4800
ctaggtagaa ggataggaag gcggttgaat ggaaatttac attgacatga gatgcttggt 4860
tatttgaagt gaggagaggt aagagtgatg gtagtgttgg tatatggatg atgttgcacg 4920
gtgcgatgca ttgagcttga aatgaaacag ccgtggagat tcgatgttca ctgagaagag 4980
ttggcttgta tactggttgg gtatagatat ctcgtatgtc ttgtgcctca ttcgcacgat 5040
gtctaccgta cgatgaagag gaagcttccg cctgccggac gagcttccca tgccggagag 5100
taactctctc tctctaatct ataataggta ctttgccttg ggccttacgg tggcaccgtt 5160
tgaagcttat atcaagtcac tgacaaaagt gtgtaaagga tggataaatc tccataaaca 5220
gattgtttcg aacggacctt gggtgaatat cccgtagcag atgggacaat acgacactag 5280
attattgaca aagagtttcg gagacacaat gtcacacagg acaacaacag actcctcccc 5340
cacggataag atagattaga gtggcggaga tccggagatg cacccttctg catgacttga 5400
cgagaagcgc aagagtctct accaggtatt tctgtaaggg gactcgtcgt acgagtttga 5460
acagcaaata cctaagcaag agaggagtat gaacttgcac agcattatat gtgcgactac 5520
ctagatacgc tgtgtcacat gtttatatgc cgcgatgctg ttgtatcggc atctgttgca 5580
ttgtatacct aattagttgt cttgatgtcc ttaatactat cttctaaagt actaggtagt 5640
tgatactatg aatagtctac ctactttata tcgcacgcaa ggggcgaaga caatgcgtgg 5700
cgttgcatga ggcagtctcg cgcaccacga cacgacacaa agagcacttt ataggtaggt 5760
atgtacctag ttttttggct cctgttcatc ccgaggcagg tgcactctag atagaagagg 5820
actaggcagt gctgcgtttc catggcttca gataggtacc tatctaccta cctaccaacc 5880
aaggtgttac cttattttgt gtatgacagc ttttacctta ggtaatgagc agcacttcaa 5940
gacggactct ttagaagaaa tcagaattcg agagccagct caacaacggc aagagtgata 6000
ctggtatttg tcatctgcct acattgctgg atgtgttaaa tcaggcaaac ctgacacaat 6060
atcggtacac agtctcaatg cctgatgcaa agccaactga tatcacatcc gattctacct 6120
aaaagcagca tcatgtacga gacggtattc ttgacctgca tcaagctttc gccccccccc 6180
cccccccccc cccccccccc cccccccccc catatgcgta cgtcccgtat cacaggcatc 6240
aaaatcccac cgatatccca tgcaggtccc ccttccatct ctcacagctt ccccccctct 6300
gtaacaccac atgatgtaca gtacaagcca cgctgcaccg cagctctcct acataatgat 6360
actactacta acaccaccac atacatacag acagacccca atttcccctt acatatcccc 6420
ctcccctctt cacaccaaaa acggaaagaa aaaaaaataa gaggagagag agataaggtc 6480
cgtatcattg gtatgagaga taacagctct gtagcaaaag attgacatct tgcatgctta 6540
tcagctggtt ctcttgattc tgaatcctca ggccagaaga cgcgccgaca tcgctgatgt 6600
actcgagacg attgcaaccc aaaccaatca catccatcac acttgtgcag aatgctgcct 6660
ttcagcgaaa atttaaccat gttcaataac attatccttt attcattgat ttctcaattg 6720
cttccttgcc atctatgggt tctgttcgcg tccccagaga tgcatcgccg tcttttgata 6780
aagtatatac ataagttgac tcccatgtac agttgcccac caaacatcaa attaccatcc 6840
aagtacccat atgccgtgct ttatatctaa cccagtggac gtgtaataat cttgtgccaa 6900
gaggccataa cagtctttgt gaagtactaa gagaaacagg aggaaaaggg aagtgaagaa 6960
aaggaaaaga aaaagaatcc acaagtcgag ttcgacaaga tgtcgaagcg aggcgacgta 7020
acgctccggg gtcaggattg gtggattgca gtcacactat gcggtgcatg gtgacaagca 7080
agagcggctg ataagagaag ctcgagttgg gatgttgaaa aagcgccgtg aggggcccag 7140
attgaagccg tccaaagtgg gaaaggatcc gaaatcccct cgctgccgga ccactaatga 7200
cagtgatcga acagtgaaaa cagttgaaaa catcaaaact tttgttgtgc gtaagtgtgt 7260
atctccctga agaacgccaa agggaaaaaa aaagaaagga agaatagaag aataacagtt 7320
gtgcggagtg tggtgcgaat gggctcggca acagcaaagg agccggacga gaccaggacc 7380
tcaagtcggt tggaggtggc acaacagcgt gctgccagtc gacggcgaga cccttgccgc 7440
tgggcatccg cacccctgta accccgcagt ccgaatcaat gcgccgtttg gccagaattc 7500
tggcaaaatg cggaggcgcg gtgtgcgtcg gaggtcccat cacgacatct gcacgcgcca 7560
gtccttgttc gtctgcgtct tattgcctgg ccacccccac agcggtggcc gacgctccca 7620
ggccagtctg gtgataggcc gctgcgagcc cagctgctgc tagccggcgt gccgtgcgca 7680
agggggggga aaggggccgc tagagacgct cgaggcggat gggactgcag ccaaccgctt 7740
cgtcccatct cagggcctca aacaattaac ccccccgcca gcacacccac ctggctgcgt 7800
ccgaaatcac cgagtcagca tggggatgac aagctcgacg ctctttggcc gcgagctgcc 7860
gcctggggtc ctcgagggca gcggccggtc catggcccca gaccctgcct cgtgcgagta 7920
ggtgcccccg taggccaggt cgagggtgct cgggtggctg tacagaaggc tggccgatgg 7980
tcgcgtgtac gagttgttgg ggctggtagc tgagctgcgg ctgaagggcc agatgccact 8040
ccccgacggc gacggggggc tgggtggcct cacgttgagg gatcgcaggg cagacatggc 8100
cgaggtgtgg tagttgagcg cggtgtctgg tgaagccggc ggagagttgg tgaagtgcat 8160
cgagctgggc cgtgagggcg aggcccgtgg cacaatgtct cgcggctcgg acccggccaa 8220
ggactcggtc aggatgcggc gctggttgac gtagacagag gagtaatagc tgcgaaccga 8280
cttggcctgc gcggacgagt cttggtctac ccggcggcat ctacacacat gtgtgttagt 8340
ggacgtgatc aacccagctc ctccaaggtt cgtcgtcaag aagagaaaca tacgcatcgg 8400
agcagtacag aaccagctcg tcgtgggtgt ggaattcctt ttcgcaaatc atgctgcagg 8460
aacacaaaag gtcagttaca tggcctcagc agcgtcacaa acaacaggag tggcttccat 8520
accagtactg agggaagctc tctcgctcgt cgttgtccca aatctccgtg tcggtctcgc 8580
gaccacctcg ccccaacttc tgggcggcgg acggagtgtg tcgtcgagtc atggttggtc 8640
gcttgtactg agcgggtgtt gcggtcactg cctttcgcac gtctgttgtc gatgcggtgg 8700
cagtgtaagg gccggacttg cgtcgctggt gaggcatttg gaatgcagat agaagaggag 8760
caagggaaaa agtgcgtggg cgaactcgag gtgttatcct ggcagctcgg agagcgtggg 8820
ggaaaactac caggaccgtc caaggcgtga gacgaccaaa atcagggaag ccagacagaa 8880
cgctgtgctg gctttatctc cggcaggcag cgcagccaaa tcaggcgggt gtatgcgaca 8940
cgtcgtattg gagagtgcgc gagattaata agagagtgac gctttgctcg acaggcgtga 9000
cttgggctga agaatgacgg gaggtcacac cggcgtagag agggtgaaga ttgatcgaca 9060
ggacccggaa gatggaagga tgctgcagat cgattcgtcg ggcagatttg ctgttatcca 9120
ctcttggtgt tcagttgaca ggagcagagc gtcgactgct gagtagctta aaagggccaa 9180
atatagcagt ggtatcgacg gtcagatgat aagcaccgca gagggtgaga tgaggtggat 9240
gggagggcgt ttggtgtaag tggtggcacg ggatgaaggt ctagtgctgg gttgaccgga 9300
ggctgagctg gactgtgatg tgtcgtcgat aatggggtgg tggtgtaagg cgtattcgca 9360
gattgatgga ggaagggaaa agaacggatg aggaagtaga tttgaacgag agtgagagga 9420
ggaagaggag gaggaagagg tcggaaaaga ctggcgtgtg agacgctttt gttgtcgtgc 9480
ttctgcttct ccgtatttgt gcaggctgta agaggtactt gtataatatg caatctgatg 9540
gcagccgaaa gcggagactc gcagttcact gcttggtgac aaagtttcca gcagggcgat 9600
cggcgcggac gggagtaact ttgcgtccag ggcgggtgcc agcagcagca gcaggtaccg 9660
atggtgacac actgtcgacg ccgggctcca caatgtcgcg atagtggtac tttggccctc 9720
gactcggact ttgcttgggg ggggcaggca gcgatgactc ttttgttttt gtgggctctc 9780
ttgtctcctt ttttctttct tgcgttaagc ttctttttgt gaatgctatt tttttttctt 9840
ctcctttatt ccgctttaat atattttccc cttcagaaac agaaagaagc tttccaatgt 9900
ttcaaaataa aacgtaaatt gtggaacaca gtctggcagg ctcttgtcga agtcgggcgt 9960
ggtgcgaatc gctcggatga agcctcggtg gtagggctgg actcgttcgg gcggatgtac 10020
tacccagtac tcgtgtggag gtacctgtaa gacgggatcg cgccggagag gtacttgtgt 10080
gcacaggtgg gagcggtcgc aaggccgtag cgtttattga gttgctgacg tgcttatggg 10140
ccaagattcg tacagtatta gaagctggag cacgaataat acccaagcat ggggtgcagc 10200
agttggtttc agttgcttgt cttgc 10225
<210> 6
<211> 1354
<212> PRT
<213> Artificial Sequence
<400> 6
Met Ala Gly Arg His Pro Ile Gly Gly His Gly Gly Pro Ser Thr Thr
1 5 10 15
Asp Asp Leu Leu Leu Asp Leu Asp Asn Glu Gln Pro Val Tyr Asn Ala
20 25 30
Gly Gln Arg Ser Ala Leu Asn Asp Asp Asp Leu Ala Arg Ala Tyr Glu
35 40 45
His Asp His Asp Asn Asp Pro Gln Ser Arg Pro Ser Val Ser Tyr Asp
50 55 60
Asp Phe Val Gly Ala Glu Pro Ser Tyr Pro Pro Ala Gly Arg Pro Gly
65 70 75 80
Leu Ala Gln Ala Ala Gln Pro Ser Gly Gln Ser Ser Gly Pro Tyr His
85 90 95
Ala Gln Gln Phe Ser Gln Ser Ser Asp Leu Asp Asn Phe Pro Arg Tyr
100 105 110
Ala Asp Asp Phe Asp Asp Asp Asp Met Tyr Tyr Gln His Gly Gly Ala
115 120 125
Ala Gly Ala Gly Pro Ala Ser Ala Gly Arg Asp Asn Ala Arg Ala Arg
130 135 140
Asn Ser Val Leu Ser Leu Gly Gly Gly Leu Phe Gly Lys Leu Lys His
145 150 155 160
Arg Leu Gly Met Gly Gln Gly Tyr Ser Glu Met Asp Leu Pro Leu Thr
165 170 175
Glu Pro Gly His Asp Arg Gly Gly Pro Ile Ala Gly Ser Ser Gln Pro
180 185 190
Pro Asp Gln Gln Pro Ala Gly Lys Lys Ala Gly Asn Phe Lys Phe Gly
195 200 205
Phe Gly Arg Gly Lys Pro Asp Pro Ala Ser Leu Gly Pro Arg Ile Ile
210 215 220
His Leu Asn Asn Pro Pro Ala Asn Ala Ala Asn Lys Tyr Val Gly Asn
225 230 235 240
His Ile Ser Thr Ala Lys Tyr Asn Val Ala Thr Phe Leu Pro Lys Phe
245 250 255
Leu Phe Glu Gln Phe Ser Lys Val Ala Asn Ile Phe Phe Leu Phe Thr
260 265 270
Ala Ala Leu Gln Gln Ile Pro Gly Leu Ser Pro Thr Asn Lys Tyr Thr
275 280 285
Thr Ile Gly Pro Leu Ala Val Val Leu Leu Val Ser Ala Gly Lys Glu
290 295 300
Leu Val Glu Asp Tyr Arg Arg Arg Val Ala Asp Asn Ala Leu Asn Thr
305 310 315 320
Ser Lys Ala Arg Val Leu Arg Gly Ser Thr Phe Thr Glu Thr Lys Trp
325 330 335
Asn Thr Val Ala Val Gly Asp Val Val Arg Val Glu Ser Glu Glu Pro
340 345 350
Phe Pro Ala Asp Leu Val Leu Leu Ala Ser Ser Glu Pro Glu Gly Leu
355 360 365
Cys Tyr Ile Glu Thr Ala Asn Leu Asp Gly Glu Thr Asn Leu Lys Ile
370 375 380
Lys Gln Ala Leu Pro Glu Thr Ser Thr Leu Val Ser Pro Ser Glu Val
385 390 395 400
Ser Arg Leu Gly Gly Arg Ile Lys Ser Glu Gln Pro Asn Ser Ser Leu
405 410 415
Tyr Thr Tyr Glu Ala Thr Leu Ile Met Gln Ala Gly Gly Gly Glu Lys
420 425 430
Glu Leu Ala Leu Asn Pro Glu Gln Leu Leu Leu Arg Gly Ala Thr Leu
435 440 445
Arg Asn Thr Pro Trp Ile His Gly Ile Val Val Phe Thr Gly His Glu
450 455 460
Thr Lys Leu Met Arg Asn Ala Thr Ala Thr Pro Ile Lys Arg Thr Lys
465 470 475 480
Val Glu Arg Gln Leu Asn Trp Leu Val Leu Met Leu Val Gly Met Leu
485 490 495
Leu Val Leu Ser Val Ile Ser Thr Ile Gly Asp Leu Val Met Arg Gly
500 505 510
Ala Thr Gly Asp Ser Leu Ser Tyr Leu Tyr Leu Asp Lys Ile Asp Ser
515 520 525
Ala Gly Val Ala Ala Ser Thr Phe Phe Lys Asp Met Val Thr Tyr Trp
530 535 540
Val Leu Phe Ser Ala Leu Val Pro Ile Ser Leu Phe Val Thr Val Glu
545 550 555 560
Leu Val Lys Tyr Trp His Gly Ile Leu Ile Asn Asp Asp Leu Asp Met
565 570 575
Tyr Tyr Asp Lys Thr Asp Thr Pro Ala Thr Cys Arg Thr Ser Ser Leu
580 585 590
Val Glu Glu Leu Gly Met Val Glu Tyr Val Phe Ser Asp Lys Thr Gly
595 600 605
Thr Leu Thr Cys Asn Met Met Glu Phe Lys Gln Cys Ser Ile Gly Gly
610 615 620
Ile Met Tyr Ala Glu Glu Val Pro Glu Asp Arg Arg Ala Ser Gly Ala
625 630 635 640
Asp Asp Glu Glu Thr Ala Ile Tyr Asp Phe Lys Ala Leu Gln Ala Asn
645 650 655
Leu Thr Gln Gly His Pro Thr Ala Gly Met Ile Asp His Phe Leu Ser
660 665 670
Leu Leu Ala Thr Cys His Thr Val Ile Pro Glu Met Asp Glu Lys Gly
675 680 685
Gln Ile Lys Tyr Gln Ala Ala Ser Pro Asp Glu Gly Ala Leu Val Ala
690 695 700
Gly Ala Val Thr Met Gly Tyr Lys Phe Thr Ala Arg Lys Pro Lys Ser
705 710 715 720
Val Ile Ile Glu Ala Asn Gly Arg Glu Met Glu Tyr Glu Leu Leu Ala
725 730 735
Val Cys Glu Phe Asn Ser Thr Arg Lys Arg Met Ser Ala Ile Phe Arg
740 745 750
Cys Pro Asp Gly Lys Ile Arg Val Tyr Cys Lys Gly Ala Asp Thr Val
755 760 765
Ile Leu Glu Arg Leu Asn Asp Gln Asn Pro His Val Glu Ile Thr Leu
770 775 780
Arg His Leu Glu Glu Tyr Ala Ser Glu Gly Leu Arg Thr Leu Cys Leu
785 790 795 800
Ala Met Arg Glu Val Pro Glu Gln Glu Tyr Arg Glu Trp Arg Gln Ile
805 810 815
Phe Asp Thr Ala Ala Thr Thr Val Gly Gly Asn Arg Ala Asp Glu Leu
820 825 830
Asp Lys Ala Ala Glu Ile Ile Glu His Asp Phe Tyr Leu Leu Gly Ala
835 840 845
Thr Ala Ile Glu Asp Arg Leu Gln Asp Gly Val Pro Glu Thr Ile His
850 855 860
Thr Leu Gln Gln Ala Asn Ile Lys Val Trp Val Leu Thr Gly Asp Arg
865 870 875 880
Gln Glu Thr Ala Ile Asn Ile Gly Met Ser Cys Lys Leu Leu Ser Glu
885 890 895
Asp Met Met Leu Leu Ile Val Asn Glu Glu Ser Ser Ala Ala Thr Arg
900 905 910
Asp Asn Ile Gln Lys Lys Leu Asp Ala Ile Arg Thr Gln Gly Asp Gly
915 920 925
Thr Ile Glu Met Glu Ser Leu Ala Leu Val Ile Asp Gly Lys Ser Leu
930 935 940
Thr Tyr Ala Leu Glu Lys Asp Met Glu Lys Leu Phe Leu Asp Leu Ala
945 950 955 960
Ile Met Cys Lys Ala Val Ile Cys Cys Arg Val Ser Pro Leu Gln Lys
965 970 975
Ala Leu Val Val Lys Leu Val Lys Lys Tyr Gln Lys Gln Ser Ile Leu
980 985 990
Leu Ala Ile Gly Asp Gly Ala Asn Asp Val Ser Met Ile Gln Ala Ala
995 1000 1005
His Ile Gly Val Gly Ile Ser Gly Val Glu Gly Leu Gln Ala Ala
1010 1015 1020
Arg Ser Ala Asp Val Ala Ile Ala Gln Phe Arg Tyr Leu Arg Lys
1025 1030 1035
Leu Leu Leu Val His Gly Ala Trp Ser Tyr Gln Arg Val Ser Lys
1040 1045 1050
Thr Ile Leu Phe Ser Phe Tyr Lys Asn Ile Ala Leu Tyr Leu Thr
1055 1060 1065
Gln Phe Trp Tyr Thr Phe Gln Asn Val Phe Ser Gly Gln Val Ile
1070 1075 1080
Tyr Glu Ser Trp Thr Leu Ser Phe Tyr Asn Val Phe Tyr Thr Val
1085 1090 1095
Leu Pro Pro Leu Ala Ile Gly Ile Leu Asp Gln Phe Ile Ser Ala
1100 1105 1110
Arg Leu Leu Asp Arg Tyr Pro Gln Leu Tyr Met Met Gly Gln Gln
1115 1120 1125
Asn Ser Ala Phe Lys Leu Lys Val Phe Ala Gln Trp Ile Ala Asn
1130 1135 1140
Ala Ile Tyr His Ser Leu Leu Leu Tyr Val Phe Ala Glu Leu Ile
1145 1150 1155
Trp Tyr Gly Asp Val Ile Asp Gly Gln Gly Gln Thr Asp Gly His
1160 1165 1170
Trp Val Trp Gly Thr Ala Leu Tyr Gly Ser Val Leu Leu Thr Val
1175 1180 1185
Leu Gly Lys Ala Ala Leu Val Thr Asn Asn Trp Thr Lys Tyr His
1190 1195 1200
Val Met Ala Ile Pro Gly Ser Met Val Ile Trp Trp Val Phe Ile
1205 1210 1215
Ala Val Tyr Gly Thr Val Ala Pro Lys Val Lys Ile Ser Pro Glu
1220 1225 1230
Tyr Phe Gly Val Ile Pro Lys Leu Tyr Ser Ser Pro Val Phe Trp
1235 1240 1245
Leu Gln Ile Phe Val Leu Ala Leu Leu Cys Leu Ser Arg Asp Ile
1250 1255 1260
Ala Trp Lys Tyr Ala Lys Arg Met Tyr Trp Pro Gln Thr Tyr His
1265 1270 1275
His Ile Gln Glu Ile Gln Lys Tyr Asn Ile Gln Asp Tyr Arg Pro
1280 1285 1290
Arg Met Glu Gln Phe Gln Lys Ala Ile Arg Lys Val Arg Gln Val
1295 1300 1305
Gln Arg Met Arg Lys Gln Arg Gly Tyr Ala Phe Ser Gln Ala Asp
1310 1315 1320
Glu Ser Gln Thr Arg Val Leu Gln Ala Tyr Asp Thr Thr Lys His
1325 1330 1335
Arg Gly Arg Tyr Gly Glu Met Ala Ser Ser Arg Pro Ile Asp Gly
1340 1345 1350
Ile

Claims (10)

1. Knock-out of Trichoderma reesei (T. reesei) ((T. reesei))Trichoderma reesei) The substance of the nucleic acid molecule encoding the Trdrs2 protein can be used for increasing the expression level of Trichoderma reesei (T. reesei) ((T. reesei))Trichoderma reesei) Application in extracellular protein secretion amount;
the Trdrs2 protein is any one of the following a1) -a 4):
a1) protein shown as a sequence 6 in a sequence table;
a2) a fusion protein obtained by connecting labels to the N terminal or/and the C terminal of the protein of a 1);
a3) a protein which is obtained by substituting and/or deleting and/or adding one or more amino acid residues in a1) and is related to the secretion amount of the trichoderma reesei extracellular protein;
a4) a protein which has 98% or more identity to a1) and is related to the secretion amount of the trichoderma reesei extracellular protein;
the knockout Trichoderma reesei (T. reesei) (M. reesei)Trichoderma reesei) The substance of the nucleic acid molecule encoding the Trdrs2 protein is a knockout Trichoderma reesei (T. reesei)Trichoderma reesei) The DNA fragment of the nucleic acid molecule encoding the Trdrs2 protein, or the recombinant vector containing the DNA fragmentAnd (4) group cells.
2. Use according to claim 1, characterized in that: the nucleic acid molecule encoding the Trdrs2 protein is any one of c1) -c3) as follows:
c1) DNA molecules shown in a sequence 1 or a sequence 2 in a sequence table;
c2) a DNA molecule having 95% or more identity to c1) and encoding the protein;
c3) a DNA molecule which hybridizes with the nucleotide sequence defined by any one of c1) or c2) under strict conditions and codes the protein.
3. Use according to claim 1 or 2, characterized in that: the knockout Trichoderma reesei (Trichoderma reesei) The DNA fragment of the nucleic acid molecule encoding the Trdrs2 protein containsTrdrs2Upstream homology arms of genes andTrdrs2downstream homology arms of genes, theTrdrs2The nucleotide sequence of the upstream homologous arm of the gene is 1 st to 2000 th of a sequence 3 in a sequence table, and the sequence isTrdrs2The nucleotide sequence of the downstream homology arm of the gene is 6189-8188 site of the sequence 3 in the sequence table.
4. Use according to claim 3, characterized in that: the knockout Trichoderma reesei (T. reesei) (M. reesei)Trichoderma reesei) The DNA fragment of the nucleic acid molecule of the Trdrs2 protein is shown as a sequence 4 in a sequence table.
5. A construction method of recombinant trichoderma reesei comprises the following steps: knockout of Trichoderma reesei (T. reesei) (T. reesei)Trichoderma reesei) The nucleic acid molecule of Trdrs2 protein to obtain the recombinant Trichoderma reesei; the recombinant trichoderma reesei has higher extracellular protein secretion amount than that of trichoderma reesei (Trichoderma reesei) (III)Trichoderma reesei)。
6. The method of claim 5, wherein: the knockout Trichoderma reesei (Trichoderma reesei) The method for coding the nucleic acid molecule of the Trdrs2 protein is homologous recombinationPanel, random insertion mutation or RNAi.
7. The method of claim 6, wherein: the nucleotide sequence of the upstream homology arm adopted in the homologous recombination is 1 st-2000 th of a sequence 3 in a sequence table, and the nucleotide sequence of the downstream homology arm adopted in the homologous recombination is 6189 th-8188 th of the sequence 3 in the sequence table.
8. The method of claim 7, wherein: the homologous recombination is carried out by introducing a DNA fragment shown in a sequence 4 in a sequence table into the trichoderma reesei (T. reesei)) (Trichoderma reesei) And (5) realizing.
9. A recombinant Trichoderma reesei constructed by the method of any one of claims 5 to 8.
10. Use of a method according to any one of claims 5 to 8 or a recombinant trichoderma reesei according to claim 9 in the preparation or synthesis or expression of extracellular proteins.
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