CN113736753B - Vibrio alginolyticus bacteriophage and application thereof - Google Patents

Vibrio alginolyticus bacteriophage and application thereof Download PDF

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CN113736753B
CN113736753B CN202111279486.3A CN202111279486A CN113736753B CN 113736753 B CN113736753 B CN 113736753B CN 202111279486 A CN202111279486 A CN 202111279486A CN 113736753 B CN113736753 B CN 113736753B
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vibrio alginolyticus
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李祥付
钟宛宣
徐杰
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South China Sea Institute of Oceanology of CAS
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Abstract

The invention discloses a vibrio alginolyticus bacteriophage and application thereof. The Vibrio alginolyticus phage vB _ ValS _ R12Z has a preservation number of GDMCC No: 61738-B1. The Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z provided by the invention has the characteristics of wide cracking spectrum and short latency, can crack various Vibrio alginolyticus and Vibrio owensis 3186, has the latency of 10 min, and can quickly and effectively kill and prevent and treat corresponding vibrio diseases. In addition, virulence factor genes and drug resistance genes are not detected in the phage genome, which shows that the phage can not enhance the host toxicity strength and can not cause drug resistance pollution of the surrounding water environment, and the safety is high, and the environment is friendly, so the vibrio alginolyticus phage vB _ ValS _ R12Z can be completely used for preventing and treating vibrio alginolyticus diseases of aquatic products.

Description

Vibrio alginolyticus bacteriophage and application thereof
Technical Field
The invention relates to the technical field of microorganism application, in particular to a vibrio alginolyticus phage vB _ ValS _ R12Z and application thereof.
Background
With the rising demand of aquatic products, the aquaculture of ChinaThe industry scale is enlarged year by year, the breeding mode is gradually transformed to high-density intensive breeding, however, infectious diseases can cause greater threat to high-density breeding, the breeding products are reduced in large scale due to disease outbreak, and great economic loss is caused to farmers. Wherein, Vibrio (Vibrio)Vibrio) Caused Vibriosis (Vibriosis) is one of the most common diseases in aquaculture industry causing massive death of fish, shrimp and shellfish, and Vibrio alginolyticus (Vibrio)Vibrio alginolyticus) Is also a common pathogenic bacterium in vibrio, and the infection of vibrio alginolyticus can cause the organs such as digestive tracts, skins and the like of aquatic animals to be diseased and finally cause the death of the organs. When the uncooked aquatic product infected with the vibrio alginolyticus is eaten, infection can be caused to people, and symptoms such as diarrhea, dizziness and the like can be caused to the people. Currently, putting antibiotics in the aquaculture system is the most common and effective means for preventing and treating bacterial aquatic diseases, but because the antibiotic treatment has the problems of drug residues, increased drug resistance, long development period of new antibiotics, high development cost and the like, the aquaculture industry may face the embarrassment of no antibiotics in the near future, and therefore, the search for efficient and environment-friendly alternative prevention and treatment methods is urgent.
As one of the methods for coping with bacterial aquatic diseases, a method for controlling aquatic diseases by using bacteriophage has been attracting attention in recent years. The bacteriophage prevention and control mainly utilizes the lysis effect of virulent bacteriophage on bacteria to kill pathogenic bacteria so as to achieve the effect of treating and preventing bacterial diseases of aquatic animals. The bacteriophage is an organism with the highest abundance and diversity in nature, and has the characteristics of high specificity degree and strong self-multiplication capacity. A bacteriophage will generally only infect a particular host bacterium or class of host bacterium and will not destroy the structure of other bacterial populations in the aquatic product or aquatic environment. After the virulent phage invades the host, a large amount of self-propagation replication is rapidly completed until the host is cracked, and then other host bacteria are infected and cracked, so that pathogenic bacteria can be rapidly and effectively killed. So, comparatively speaking, the phage prevention method has good killing effect on bacteria and is environment-friendly, so the method can be completely used as a substitute for preventing and controlling bacterial diseases and even antibiotic prevention of drug-resistant strains. Therefore, in order to develop a phage control method capable of effectively treating vibrio alginolyticus aquatic diseases, it is necessary to screen and utilize phage which can target vibrio alginolyticus and has strong antibacterial ability or relative superiority in other aspects of antibacterial effect.
Disclosure of Invention
The invention aims to provide a safe and effective bacteriophage which can be used for preventing and treating vibrio alginolyticus infectious aquatic diseases so as to solve the problem of drug resistance of antibiotics in preventing and treating vibrio alginolyticus diseases.
Aiming at the above purpose, the invention is realized by adopting the following technical scheme:
the first purpose of the invention is to provide a Vibrio alginolyticus phage vB _ ValS _ R12Z with the preservation number as follows: GDMCC No. 61738-B1.
The invention obtains a new vibrio alginolyticus virulent phage by screening and separating the eighth market wastewater of Fujian Xiamen, determines the form and classification status of the phage through form observation, whole gene sequencing and phylogenetic analysis, and names the phage as vibrio alginolyticus phageVibrio phagevB _ ValS _ R12Z, deposited at the Guangdong province culture Collection (GDMCC) at 8/4/2021 with the accession number GDMCC No: 61738-B1, accession number: guangzhou city, first furious Zhonglu No. 100 large yard No. 59 building No. 5, zip code: 510070.
further, transmission electron microscope observation shows that the Vibrio alginolyticus phage vB _ ValS _ R12Z is a head-tail virus with a head length of 100 nm, a width of 52 nm and a tail length of 145 nm, and belongs to long-tail phage according to the standard of the latest virus classification system of the International Commission on Virus Classification (ICTV).
Further, the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z to Vibrio alginolyticus ATCC 17749TVibrio alginolyticus ATCC 17749T)、JL2674(Vibrio alginolyticus JL2674)、BVA2(Vibrio alginolyticusBVA 2) and Vibrio owens 3186: (Vibrioowensii 3186) All have a cracking effect.
Further, the genome of the vibrio alginolyticus phage vB _ ValS _ R12Z is respectively compared and analyzed in a pathogenic bacteria Virulence Factor Database (VFDB) and a comprehensive drug resistance database (CARD), and virulence genes and drug resistance genes are not detected, so that the infection of the vibrio alginolyticus phage vB _ ValS _ R12Z cannot cause the virulence enhancement of host bacteria and the drug resistance pollution of a culture environment and a surrounding water environment.
It is a second object of the present invention to provide a phage composition comprising the Vibrio alginolyticus phage vB _ ValS _ R12Z.
The third object of the present invention is to provide the use of the above-mentioned Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z or the bacteriophage composition for killing and/or preventing microorganisms of Vibrio.
The fourth purpose of the invention is to provide the application of the vibrio alginolyticus phage vB _ ValS _ R12Z or the phage composition in preparing the medicine for resisting the vibrio microorganisms.
The fifth purpose of the invention is to provide the application of the vibrio alginolyticus bacteriophage vB _ ValS _ R12Z or the bacteriophage composition in preparing aquatic feed or feed additive resisting vibrio microorganisms.
Further, the microorganism of Vibrio isVibrio alginolyticus ATCC 17749TVibrio alginolyticus JL2674、Vibrio alginolyticus BVA2、Vibrioowensii 3186 one or more of the above.
It is a sixth object of the present invention to provide a medicament against microorganisms of the genus Vibrio, which contains the above-mentioned Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z or a phage composition.
It is a seventh object of the present invention to provide an aquatic feed or feed additive against Vibrio microorganisms, which contains the above Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z or the bacteriophage composition.
The eighth purpose of the invention is to provide a method for preventing and treating the harmful infection of vibrio alginolyticus, which kills the vibrio alginolyticus by using the lysis effect of the vibrio alginolyticus bacteriophage vB _ ValS _ R12Z or the bacteriophage composition on the vibrio alginolyticus.
The invention has the following beneficial effects:
the vibrio alginolyticus phage vB _ ValS _ R12Z is a lytic long-tail phage, has a wide lysis spectrum, can lyse various vibrio alginolyticus and vibrio erwinii 3186, can effectively kill and prevent related vibrio diseases, does not detect virulence factor genes and drug resistance genes in the phage, has no toxic or side effect, high safety and environmental friendliness, and shows that the vibrio alginolyticus phage vB _ ValS _ R12Z can be completely used as a bactericide for the vibrio alginolyticus diseases of the aquatic products.
Vibrio alginolyticus bacteriophage of the present inventionVibrio phage vB _ ValS _ R12Z was deposited at the guangdong province collection of microorganisms (GDMCC) at 8/4/2021, address: building 59 of first fure middle way 100, large yard, Guangdong province, Guangzhou city, zip code: 510070, accession number GDMCC No: 61738-B1.
Drawings
FIG. 1 shows the plaque morphology of the Vibrio alginolyticus phage vB _ ValS _ R12Z.
FIG. 2 is an electron micrograph of Vibrio alginolyticus phage vB _ ValS _ R12Z.
FIG. 3 phylogenetic tree of the Vibrio alginolyticus phage vB _ ValS _ R12Z and a close canonical phage strain.
FIG. 4 is a one-step growth curve of Vibrio alginolyticus phage vB _ ValS _ R12Z.
Detailed Description
The following examples are further illustrative of the present invention and are not intended to be limiting thereof. The methods and techniques used are conventional unless otherwise specified.
Example 1: isolation and purification of bacteriophages of Vibrio alginolyticus
A sample of a wastewater sample collected from the eighth market of Fujian Xiamen was filtered through a 0.22 μm filter membrane and returned to the laboratory in a refrigerated state (stored in a refrigerator at 4 ℃).
In order to increase the abundance of the phage and improve the success rate of phage separation, before the separation experiment, the phage which may exist in the sample is firstly expanded and cultured, specifically as follows: to 10 mL of host bacteria (Vibrio alginolyticus ATCC 17749) in the initial logarithmic growth stageT) Adding 2 mL of water sample filtered again by 0.22 μm syringe filter into the culture solution, placing in shaking table, culturing for 24 hr, recovering mixed culture solution, and filteringRemoving cells and impurities in the system by a 0.22-micron syringe filter to obtain the mixed phage liquid after propagation, and storing the mixed phage liquid in a refrigerator at 4 ℃.
1mL of the mixed phage liquid was taken, and gradient dilution (dilution gradient: X10) was carried out using SM buffer (SM buffer was prepared by adding 5.844 g NaCl, 2.4647 g MgSO4 & 7H2O, 6.057 g Tris, and 0.100 g Gelatin to 1L of ultrapure water, pH was adjusted to 7.50 after preparation, and autoclaving was carried out at 100 ℃ for 30 min, followed by cooling) to obtain a diluted phage liquid0、×10-2、×10-4、×10-6) And the quantity of the phage in the sample is ensured to be suitable. Adding 1mL of host bacteria culture solution at the initial logarithmic growth stage into each diluted gradient phage solution, shaking, standing at room temperature in the dark for 15 min, and allowing the phage to adsorb and infect the host bacteria.
After adsorption, adding 5-6 mL of melted 2216E semisolid culture medium (30 g of 2216E liquid culture medium powder (Haibo organism, Qingdao) is added according to 1L of ultrapure water into the mixed sample, boiling for 1 min to dissolve the powder, cooling, filtering by a 0.45-micron MCE water-based microporous membrane (Tianjin, Temminck laboratories, Inc.), obtaining a filtrate which is an unsterilized liquid culture medium, adding 0.5% of agar powder with final concentration (wt/vol), sterilizing by high-pressure steam at 121 ℃ for 15 min, cooling for later use, obtaining the 2216E semisolid culture medium, heating and melting again before use, controlling the temperature at 50 ℃ in the use process, quickly mixing, pouring onto the prepared single-layer flat-plate 2216E solid culture medium (adding agar powder with final concentration (wt/vol) of 1.5% into the unsterilized liquid culture medium, sterilizing by high-pressure steam at 121 ℃ for 15 min, pouring the culture medium into a culture dish (Biosharp, China) with the diameter of 9 cm before cooling and solidifying, and cooling and solidifying for later use to obtain the solid culture medium). And (3) after the upper flat plate is cooled and solidified, inversely placing the upper flat plate in a constant-temperature incubator at 30 ℃ for culture, and observing whether the plaques appear or not at regular time after 3-4 hours.
After plaques appeared on the double-layer plate, the plaques were carefully observed and recorded by morphological size classification, and individual plaques were picked with a sterilized snip tip and placed in 1mL of SM buffer. The plaques are stored overnight at 4 ℃ in the dark to allow the phage to fillThe fractions were dissolved in SM buffer. The resulting phage extract was diluted in a gradient (dilution X10)-2、×10-4、×10-6、×10-8) The double-plate experiment was repeated to purify and pick individual plaques (FIG. 1) to obtain a single class of purified phage.
Example 2: expanding culture and enrichment of bacteriophages of vibrio alginolyticus
Adding 1mL of pure phage liquid into 10 mL of host bacteria (Vibrio alginolyticus ATCC 17749) at initial logarithmic growth stageT) Culturing in a shaking table at 30 deg.C. After the bacterial culture solution has been significantly lysed (i.e., the culture solution has recovered to be transparent and has floccules with cell lysis residues), the culture solution is recovered and filtered through a 0.22 μm syringe filter, and the filtrate is retained. The filtrate was added to 50 mL of host bacteria (Vibrio alginolyticus ATCC 17749) at the early logarithmic growth stageT) And in the culture solution, continuously culturing until obvious cracking phenomenon appears. The filtration process was repeated, and 200 mL of host bacteria (Vibrio alginolyticus ATCC 17749) at the initial logarithmic growth stage were added to the filtrateT) The culture is continued in the culture medium. The culture system was further expanded to 1L in this manner.
When the 1L culture system has obvious cracking phenomenon, adding DNase I and RNase A (Takara, Japan) to the final concentration of 1g/L, uniformly mixing, and digesting at room temperature for 30-60 min to degrade free host DNA and RNA in the system. NaCl was added to a final concentration of 1 mol/L, and after sufficient solubilization, the phage was placed at 4 deg.C (or ice bath) for 1 h to allow the phage to fall off the cells or debris into the liquid. Centrifugation (5000 rpm, 4 ℃ C., 5 min) was carried out, and the supernatant was filtered at 0.22 μm to remove cells and a part of debris from the system, thereby obtaining 1L of phage liquid.
Adding 10% (wt/vol) PEG8000 (living creature, Shanghai) into the phage liquid, mixing to dissolve the PEG8000 completely, and processing at 4 deg.C in dark for 1-3 days. The PEG and the biomacromolecule are fully combined and aggregated to form polymer sedimentation. The precipitated sample was centrifuged (12000 Xg, 4 ℃ C., 1 hour) and the supernatant was discarded, and the remaining precipitate was the phage precipitate. To this, SM buffer was added to resuspend the pellet, and the phage was redissolved from the PEG pellet in SM buffer and transferred to a 15 mL centrifuge tube. The phage was placed at 4 ℃ in the dark for more than 12 h to allow the phage to be fully resuspended in SM buffer. If the suspended sample has more impurities, adding equal volume of chloroform (for removing lipids, cell debris and other impurities), slightly shaking to make the two liquids fully contact and mix uniformly, centrifuging at low speed (5000 Xg, 4 ℃, 5 min) for phase separation, and taking the supernatant to obtain phage concentrate.
CsCl powder was dissolved in SM buffer, and the solution density was adjusted to 1.65 g/mL, 1.5 g/mL, 1.4 g/mL, 1.3 g/mL gradient solutions. Add slowly 6 mL of the density gradient solution to the centrifuge tube in sequence, add all of the phage concentrate above the density gradient solution, fill the centrifuge tube with SM buffer and weigh down. The density gradient centrifugation was carried out at 200000 Xg at 4 ℃ for 24 h. After the centrifugation is finished, a blue or white bacteriophage strip can be observed to be the bacteriophage pure particle, and the strip is carefully taken out to be arranged in a centrifuge tube. The removed phage bands were transferred to a 30 kDa ultrafiltration tube, centrifuged (5000 Xg, 4 ℃, 5 min) for dialysis, and washed with SM buffer to remove CsCl. After the completion, the phage solution was transferred to a 1.5 mL centrifuge tube to obtain a high-concentration enriched phage solution sample, which was stored at 4 ℃ in the dark.
Example 3: morphological observation and identification of vibrio alginolyticus phage
And (3) dripping 20 mu L of concentrated phage onto a 200-mesh copper net coated with a carbon film, carrying out dark adsorption for 10-30 min, carrying out negative staining for about 20 min by using 1% phosphotungstic acid, drying for more than 30 min, observing a sample by using a JEM 2100 type transmission electron microscope under the voltage of 120 kV, and collecting images by using an GATAN INC CCD image transmission system.
As shown in FIG. 2, the Vibrio alginolyticus bacteriophage has a head length of 100 nm, a width of 52 nm, and a tail length of 145 nm, and is flexible, and belongs to the long-tailed bacteriophage according to the standard of the latest virus classification system of the International Commission on viral classifications (ICTV). Combining the genome represented by the nucleotide sequence of the phage (as shown in SEQ ID NO. 1) and its position in the phylogenetic tree as shown in FIG. 3, it was named Vibrio alginolyticus phageVibrio phage vB _ ValS _ R12Z (deposited at the Guangdong province Collection of microorganisms at 8/4.2021, accession number GDM)CC No: 61738-B1, accession number: guangzhou city, first furious Zhonglu No. 100 large yard No. 59 building No. 5, zip code: 510070).
Example 4: chloroform sensitivity detection of Vibrio alginolyticus phage vB _ ValS _ R12Z
Mixing 0. mu.L, 20. mu.L and 200. mu.L chloroform with the purified phage vB _ ValS _ R12Z solutions with different abundances respectively, and adjusting the phage abundance to 103、105、107、109 PFU/mL, mixed and shaken for 30 s, then left to stand at 25 ℃ for 30 min. After phase separation by low speed centrifugation (5000 Xg, 45 min), 10. mu.L of supernatant was carefully taken out and dropped on a previously prepared host bacterium (Vibrio alginolyticus ATCC 17749)T) And (3) performing static culture on the double-layer plate in an incubator at 30 ℃, setting three parallel samples in an experiment, simultaneously replacing phage liquid with SM buffer solution as a negative control, and regularly observing whether the plaques appear. The chloroform sensitivity detection result of the vibrio alginolyticus phage vB _ ValS _ R12Z is shown in Table 1, and the phage after chloroform treatment still has obvious plaques, which shows that the phage is not sensitive to chloroform and has no lipid structure.
TABLE 1 detection results of the sensitivity of Vibrio alginolyticus phage vB _ ValS _ R12Z to chloroform
Figure 446861DEST_PATH_IMAGE001
Note: "+" indicates the presence of plaques by infection and "-" indicates the absence of plaques by infection.
Example 5: one-step growth curve of Vibrio alginolyticus phage
The concentration of pure Vibrio alginolyticus phage vB _ ValS _ R12Z was adjusted to 2X 10 with SM buffer6PFU/mL, using RO liquid culture medium (1L seawater after 30 kDa filtration added with 1g yeast extract, 1g peptone and 1g sodium acetate, adjusting pH to 7.4-7.8, sterilizing with 110 deg.C high pressure steam for 30 min, cooling for use, to obtain RO liquid culture medium) to treat host bacteria (Vibrio alginolyticus ATCC 17749)T) Cultured to OD600And = 0.2. Mixing 1000 μ L host bacteria liquid and 100 μ L phage sample, and standing in dark for 5 minPhage-infected bacteria were centrifuged (4 min, 8000 Xg, 4 ℃) and 1mL of supernatant removed, followed by addition of 1mL of RO liquid medium to resuspend the pellet. This step was repeated twice to remove free phage, taking 20 min. Immediately after the second resuspension, 1mL of the mixture was added to 100 mL of RO medium and shaken, 3 replicates were set (30 ℃, 160 rpm), phage samples were collected 1 time every 10 min, and phage abundance was determined by the double-layer plate method.
As shown in FIG. 4, the latency of Vibrio alginolyticus phage vB _ ValS _ R12Z is 10 min, and the lysis amount is 200 PFU/cell, which indicates that the phage is a virulent phage, and the latency is short and the lysis amount is large.
Example 6: host range detection of Vibrio alginolyticus bacteriophage
Marine planktonic bacteria and aquatic animal pathogenic bacteria of various common species of Vibrio are selected (Table 2), includingV. alginolyticus(3 strains),V. parahemolyticus(7 strains),V. owensii(4 strains),V. campbellii(2 strains),V.harveyi(2 strains),V. chagasiiV. choleraeV.fortisV. inhibensVVariabilis. Culturing vibrio to be detected to logarithmic growth initial stage with 2216E liquid culture medium, and mixing with melted semi-solid culture medium to prepare double-layer flat plate; 10 μ L of sterile high concentration (10)8 PFU/mL) Vibrio alginolyticus phage vB _ ValS _ R12Z is dripped on the solidified double-layer plate and is statically cultured in an incubator at 30 ℃; and observing whether plaques appear or not at regular time. Three replicates were set up in the experiment with Vibrio alginolyticus ATCC 17749TThe test strain was replaced with SM buffer as a positive control and the phage liquid as a negative control.
As shown in Table 2, the Vibrio alginolyticus phage vB _ ValS _ R12Z has a smaller host range and can cleave 4 host strains out of the 23 target host strains, respectivelyV. Algynolyticus ATCC 17749TV. Algynolyticus JL2674、V. Algynolyticus BVA2、V. owensii 3186。
TABLE 2 host Range results for Vibrio alginolyticus phage vB _ ValS _ R12Z
Figure 800482DEST_PATH_IMAGE002
Note: "+" indicates an infestation, and "-" indicates a failure to infect; and V.alginolyticus ATCC 17749THost strains for isolation experiments
Example 7: genomic analysis of Vibrio alginolyticus phage
Firstly, extracting DNA by adopting a phenol-chloroform extraction method, and specifically comprising the following steps:
to the suspension of Vibrio alginolyticus phage vB _ ValS _ R12Z, 1.5. mu.L of 100 mg/mL proteinase K solution, 100. mu.L of 10% (wt/vol) SDS solution, and 10. mu.L (0.5 mol/L, pH = 8.0) EDTA solution were added, mixed, and digested in a thermostatic water bath at 55 ℃ for 3 hours.
Adding an equal volume of phenol-chloroform-isoamyl alcohol (25: 24: l, volume ratio) mixed solution into the digested phage suspension, mixing uniformly, centrifuging (12000 Xg, 4 ℃, 5 min), and transferring the upper aqueous phase into a new centrifuge tube; this operation was repeated twice.
To the collected upper aqueous phase solution, an equal volume of chloroform-isoamyl alcohol (24: 1, volume ratio) mixture was added, sufficiently shaken for 30 s, and centrifuged (12000 Xg, 4 ℃, 5 min) to collect the upper aqueous phase solution. Mixing with isopropanol liquid of the same volume, mixing, standing at-20 deg.C for l h, centrifuging again (12000 Xg, 4 deg.C, 5 min), collecting bacteriophage nucleic acid precipitate, washing with pre-cooled 70% ethanol solution twice, and air drying.
The nucleic acid pellet was dissolved in 100. mu.L of TE buffer (10 mmol/L Tris-HCI, 1 mmol/LEDTA, pH = 8.0) and stored at-20 ℃ until use.
The phage vB _ ValS _ R12Z whole genome was sequenced using the Illumina HiSeq4000 platform with an end read size of 150 bp. The raw data were collated with trimmatic v0.32 and phage genomes were assembled with Velvet v1.2.03 software.
Virulence gene detection of bacteriophages in the pathogenic Virulence Factor Database (VFDB) and resistance gene detection in the integrated resistance database (CARD).
The dsDNA of the vibrio alginolyticus phage vB _ ValS _ R12ZR12Z is circularly arranged, the genome size is 32827 bp (the nucleotide sequence of the genome is shown as SEQ ID NO. 1), and virulence genes and drug resistance genes are not found in the phage genes.
The above is only a preferred embodiment of the present invention, and it should be noted that the above preferred embodiment should not be considered as limiting the present invention, and the protection scope of the present invention should be subject to the scope defined by the claims. It will be apparent to those skilled in the art that various modifications and adaptations can be made without departing from the spirit and scope of the invention, and these modifications and adaptations should be considered within the scope of the invention.
Sequence listing
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<213> Vibrio alginolyticus phage vB _ ValS _ R12Z (Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z)
<400> 1
aagccccacc ccgtctgggc tgggactcca tcggagtgcc ggacggattt tgtctgccac 60
gtgttgggga ccacgaccaa cgaccattta ctaatggacc tcgaccacga ccaccgggac 120
catcggacaa tgaccgttag taaatggacc attggaccga aggggtttgt aaattatcat 180
gggggtgtcg tatagttcgt ggaccaattt tttccgggac cagttttgaa gtttttacta 240
aaacggagga ccagatgacc agaccgaaga ggagattgat tgtagtcgag gaccgatgct 300
tccggggaca tgcccccatt cgaattgtgc ggggctctgc gaaggcttct gtatgctatc 360
aatgtcatcg tatgcaaaga aagcacgcac gcatggtagc acgctgccac aacccaaagg 420
acccaaggta caagaactac ggagggcgcg ggatcagcgt atgcccagaa tggcgtaact 480
catttactaa atggtatgag gacttcggct acctcgtaga tgggaatgac ctgactatgg 540
atcgtaggga taacgatggg gattacgagc cggggaatat gcgtgcagcc actacccaag 600
agcaaaaccg caaccaacga agaagtgttt tactaacgta cgatggggag acgctgaatc 660
aacaggtgtg ggcagatagg ttcggctttc ataaatccag tatacagcga cgccttggtg 720
ggaagtaccg gaatgatatg gaatgggtac tctttggcgt acgcactact attactaaaa 780
cggaggtact gattactaag gacaggaagc ggttgaactt gcgtgcttgg tgtagatcgc 840
tgggtttctc actacgcaca gtagaggacc gggtatacaa gttcggctgg agttatgcgc 900
aggcactagg ctttgcctcc cggaagggaa aacttagacc accgcctaca aaggattagt 960
aaataatagt tgcagttagt aacactgtgg catatactct ttatacacca actaactaag 1020
aaggattagt aaaatgactc cagaacagaa acacctagaa gacaagctta taggggtgga 1080
ccgtaactgg cgtggaactg ctaccaactg cctctactca ctagagtcta tgatgcgact 1140
actagataat ggcgtatcag agtacgtcct taagtgtcag gtacacaaca tgatggcttg 1200
gggtctagga cataacgctc agcaggcggt agcacttgcc tactcaatgc tgcacaacga 1260
tggcacctca atcccaatgg tccgggagtg cctagtgcga gcgatctctc agcagaaaca 1320
atacatccat acacttacta aggaggatta gtaaaatgaa ggacttcaat atgagcgagg 1380
agcttactcg cgtacaggct ggctggtatg agcagtctaa ggacgccgtg tacaacttga 1440
aggatgttac taaagcactc acagacggca agtcgctaaa gcattgtaag cgcatggtgg 1500
aagacatccc cggtattggt ctctcccaac gtacgcagga atatttgcag gtggctttga 1560
actgtaaacg catggagaac tttagtaaat gcttgttcaa ggcttatcaa attcaaacgc 1620
gtaatgcagc aagtctgaag aaggactcgt agaatggtta aaccgacaca ccgcacactg 1680
gtagtaactt ctaagggtcg tgtaccctac gatgagaagc attactacca cactggcaaa 1740
aagggagagg atgttacgtt agtaaacgag cgtaacttca aaacggtaca gggacagcga 1800
ttcgaccttg tacttttcgt tggcaacata tccggggaag ttcgtacgaa gttcgctggg 1860
ttggttggag attactaaaa tgaaacgcaa gtacttcgac gaagctttac catcgttctt 1920
tgtgttcggg gagcacgcta acggtacggt tgacctatcg tgtggtgagt ttgatgttgt 1980
aacatactgc cctacagaaa tggcagaagc cgccatagct tactacgaca gcctgctgct 2040
taagctgcat gagtgggtag tcgatcagga gaaaccctcg gaagccctcg acaaactctg 2100
tgacgctttc caagatgttc acgcggggca tcattacatt ggcgacttcg gggctgtaat 2160
gttactaaaa ctgctgtggg aagcgtacac caagatagcg acaatcgtcc atccgagatt 2220
cttacgtagc gtgtacggtg tagagtggac cccatcactg gtgcaggcga acttactaac 2280
gcaacgtggg tacacccctt actgtggtgg tcgtgactgc aagtcggtcc ctcgcacagc 2340
gttccgggag gagcagttcc gctgccctag ctgcggttgg gagtcgaact ttgaccctga 2400
gctcattgct gggtacaagt acgtgtggga cttgccggga gttgactgcg agatgctaga 2460
cgagttccgt gcaatactac cactatcact acacttcgta atggtagacg cggacatgcg 2520
atacgcgggg cgtattgatg atgagtagga agcgtttacc tttagtaaaa cgtgcaagcg 2580
tacattgggc tcagctcacc gggattgtcg taatggaccc ggatggatgg gaccgccaga 2640
acttcgaata cagctggtat gaagagacca ttaccattct ggagttctgg gatcgcgtgt 2700
acaactcaac aacactcatg aaattggaga attagtaaaa tggaaagttc atttggttgg 2760
aaccgtgtat tactcgtagg cgggacaaac gcgggcacgt tcatgggcgt gcttcgtgac 2820
cagcaggtga tacgtatgga gaagaaagac cccaacgtac aacgccttgg aacacacgtc 2880
ctacaacgtg agcaagcccc ggatgaaaca ttcgctaccg aggagtacgt agccacagaa 2940
cacgccttac gagggactac gatctttgta ctgcgaggaa tggctggtgc agacatcccc 3000
tgcgagatgt tgaagatcat cgctaagctg gatagtaaga ttggtgagct aaattctagg 3060
atggagcttg ctaatatagc cgcgatgaac gttgctcact acgtgaagag agaccaataa 3120
tatgcgtatg accattatag cgtgtgcggt taagatacac taccgtgtcc cggtattgcc 3180
ggagatgccg atccttatcg ggaataccag agcattcgtg cagggtcgtg ctgctggtat 3240
tgggtttagt aaccgcgtcc actacgacgt gtccatgccc aagttcgtac gctcagctgc 3300
tacgcaagca ttcggacgcc ttgaccgcga gtttaaggaa gccacaatag accttacgga 3360
ttatcaacat gcttggctgg aggtgagccc caaatgagcg tagaagctgt tttcgagcag 3420
gacatgcagt tagaccctga tatacgcaat agcaacgttg caggggcttt ctgcgtggct 3480
aaagcgaacc tttgcaacgc ctgccagtgg gacggtacta tcgacgctgc tatgatggtc 3540
ctgttgttca tgggcgttac taatttcgac gacgacctga taaagcgttc tgtcgagctg 3600
ggctacttta gcatcaaact catgggtatg gttgatccta tccgtgtaaa ccggggcgat 3660
gtgctcgtcc gatcatctac gagtttcgtg gtggtaacta acgaagagta caatcgcatt 3720
tttactaata tactgttata ggaggacgct atggctccct tcttcgtttt cgcacaaaca 3780
gcaaacgtga tggttaatac ctgccgtcgt atgggcatct caccgacgga accacgcctt 3840
atccgtgaac cggagaactt aaagggcgtg agtttcccta aagagggtgg taagtacatc 3900
atcttcgtct gtggtgagac tgttccactc tggctccacc aatttgctgt gctgaacagc 3960
gtattgctgc tgggcatgga caagcacgtg atcgagtact accgtaagca ggacttccgc 4020
gtgaatgact acaacgctta cgaacaatag accgtatagt ttactgcaac atccatttta 4080
ctaaaattaa aggagctgaa aatggactca cgttacacct ttatcgacct agtcaaagac 4140
gtattcgcag cacttaagcg tgctaaagcc aacggtgtta ctttcaaagg tcaatctccg 4200
tcagctgtag cggctgacat ggctaagtac gacgctgact tagagaatgc cccggtagaa 4260
gacttggaga aggctgtggg gcttgtgcag agcattgacg gcacgtttaa gtcaggtatc 4320
gacttggaga aggctgtggg gcttgtgcag agcattgacg gcacgtttaa gtcaggtatc 4380
gaagagaagc ttgactcaat cctaacaccc tctgcggtga tcatggattg tgacttcgac 4440
gacatcctag aagataccga agtggcttac tgcgtcgatg caaacctaga cctgctgacg 4500
gttggtgcgt acaatgccaa gggcggttgc tgcgagtgct gtcgccctta ctaccgtgaa 4560
tccgtctacc tactacgcgc tatctgtatg cgtactggtg acgacattac taaaactgtt 4620
ctggaccgca aagcggctaa gaaccaagtt ggagacaagc aataatgcaa gtaccagtca 4680
acatcacagg tccagtggga tcacttgccc tagaatacat cggcggtaac gctgataagg 4740
tgattgagtt cgttaagaac tgcaccggga acacgccgac gtttaaagag ccggatgtgt 4800
tggagtaccc agttatcggt ggtacgcaga tgatcaccgt tggcagctgg ttggtatggg 4860
ataccactaa actacactgt atggatgaag tttactttag caagaacttc acgatcatct 4920
gggaacatcc acagcagcct gtcccggtgg acgagccaga aggtcgcgct atcgtctcat 4980
acgcggtcaa ccactcgact atcgcggaag acttggactt ctaccaccac aacgagtttg 5040
gcacgcgtaa ggtacgctgt atcaagtcga actacggtgc tgaaggtcat ccaatctacg 5100
gcttactaac gctagtgtgg ttagatggtg acgtggctat gtcgatgcct gttggtgagc 5160
tgggagacac agatgagttc tcaatggatt acctcggcgc ggtagaagct gctaagcaag 5220
ggcatcgtgt gtgtcgtaag ggttggaacg gcgctgacat gtgcctagtg tacgtgccag 5280
cggcagacat cccaacgaag ggaacaggtc ttactccgtt cttcggtgat accatgccta 5340
tgcgtgctca ttggttacta aaaaccgcca caggcgatgt agccagttgg tccccatcga 5400
cgtcggatag tctagcgacg gactgggaaa tctactcacc agaataattt tactaaaatg 5460
tattgactat aagaaacagg gggaatatac ttctccctgt tgtcgttttt actaacccaa 5520
aaaggagttc aacatggata acgttatgcc tcaccctatg ccaatcacct acagccgacc 5580
tgagcatcaa cgtcacgcta ttcagtttac taaaaataat gttggagcgt tgatccaagc 5640
cctgatccac ctcgacatcg tagagacctt gggtcttggt gaagaagctt ccgacgcggg 5700
ctttggtcgc cgtgagcgcg ttgttaagcc gtgtctttca gcggagctta gagattcgtt 5760
cttcgagcag ttcccacacc gtgcgaacac gtacgaggaa aatgagttct ctatctttga 5820
gggggagttt ctggtgcttc taggcgctgg tgatttctta gtgatgtcag agcaggagtt 5880
caactcaaca tacaagtggg gtcaggacga gcctgcgcag ctagcaccgt gtgcgactcc 5940
atcgcaagat gacttggcgg ctattgccgg ggaccgcgag ttctctgagc ctcgtgtagc 6000
tgcgctggag ccggaggtgg ctatcgctgt ggaagaggcg ctggaagaca ttgccgagcc 6060
aattgcagag ccagaagagt acggcatcga agagcgagag gagtctcctc gtgcaaagcg 6120
tatggctaag cgtaatcgtc gtgactagca ttgctagtac gtttttacta atctaataat 6180
caggagaaga gttatggact ctactttact aacagtaaca ccgaacaagc ccttccgtgc 6240
cgtgcagtac aacggtagta actgggcgca ggtacgtcag tttgctgcta agtttgctaa 6300
cgtagaaatc gcgatgaact tgaaagccga cagcccacta cttgcgcacc ttggcacagg 6360
caatatactc atccctaaag ggaactacgt agttgcttgg ggcaagtggg acctgcgcac 6420
gtattcgccg gaagagttta ctaaagtgtt tgctggcatc ccgtcaggac gtgaccaact 6480
acttgaggtt gagatggaca atgaccgtat cgtgatgtct attggtgtgg aagccatgcg 6540
catgagcatc gagtcgggtc aggcagactt cagcgtaggc ggcgcagtcc acgttgcaga 6600
cgtagacagc tttgggcacg agctgatcag ctacttgaaa gctgaagctg aagacggtgg 6660
tactccagtt catcgcatga tcgatagcgt agcgttggaa gcactagagc atggtgctca 6720
cggtatcatc gagttggacg aagaagactt agagcgagac atctaatggg cgtagtaact 6780
gtacagcgga ccaatccgat catcgcgctc caattcaccg gagataacca cgaagaggtg 6840
atcgagttca tgaagcaacg cggcgggacc accgtaacga tgcagtatga caatttacta 6900
aaaattgaat ccgactgctt cctatcatgg actatccgtc agggtgattg gattatccac 6960
gagaaagggt ccgtgtgtga ggtcatcttc ggagacttct tcccggatgc cttccgcgtt 7020
atcgagaacg gaccgctgtt tggtaagaag gtggtcatct ctggtacttt cggcaaggta 7080
actcgccacg ctgtaaaaga cctcctatct gctcgcggag ctaaggtgtt cggcagtgtg 7140
aacaagttca ccgacatatt ggtgtgtggc aaggactcag gctctaagct taccaaggct 7200
aaagagctgg gaatcagaat catctacgag tcggagattc tggaactact ctagcacttt 7260
tactaaaagc ctcctaacgg gggctttttt gtgtctgaag cattgacatg tgaaacagtg 7320
ggagtatact tcttagtaaa accaacgagg attaacaaat gcgtattatc tgtaaaatgt 7380
tcggtcacga cactccgtgg aaaactcccg cgagtgtaag ccctatgtgg actcctaagc 7440
aagtctctca agacatccta tccggcgaag tccgcgtaat cgacccaatc tataccgggt 7500
acatgttcca aggctacgag ggggtgtgtt cgcgctgtgg gcagactgtc ccggtatatg 7560
ctgagaacgt gccgatcatt gagcctagcc tagttcccac cgacgacgaa gagctactag 7620
accttaatcg tgaacaccgc cagctgtacc tattctggtg tgatgttact aaaaagcacg 7680
ctgatgcacg cctgtacctt actggtaggc agctaaagta cttatggcgc tgtatctaca 7740
aaattactaa agacaacaag aacctgagcc cgacggagtc cgatacttgt aactctatcg 7800
tgttctcgta ctggaaagcc aagaagagag gtaacagatg aaaaagttaa ttatagtact 7860
agcggtcaca tcactatccg ggtgcgcgtc cccggaacgt ctacacaatt tgaagtgtga 7920
ccagtgggtg tacgaacaag ttatggagca tggggaggac tacttcgatg ccgtgaaaga 7980
gtgtggctat aaaaagatcc ctatgtcgga cccactagac ggggcgtatc gtgtctacag 8040
cgttgggggt ggttactaat ggaagccatt tactacttca gcgactggcg tcatttttgg 8100
atgtggcttg actggaactt gtatgctaac ggcaatctat tcctgatact ctgctggtct 8160
tggatcttgg cgtcgagcct aatgggactc cgtgtcaagc tctggcaggc gctctgtaac 8220
atcctcgctg tatgccttac gtggatgttc gtttgttatg tatcctacgg aaccggactg 8280
gggtgaaaaa attactaaaa agtgtttgac actcatctga aacaacgtta ctatcctccc 8340
tgttgaatac atttactaat ctactaactc agcagggagt tttactaaaa tggctactat 8400
cactaatctt caaaaagtta tccttcacgc agttgctact atcaaagact gcacaggcta 8460
caacgtagct caccacttca tgcccgctaa tgacctccac tggaccgcct ctcaccagca 8520
ggtataccgc gaactacgcc gtatggagtc tgcggaccta gtggacagcc gcgaagtccc 8580
acaagacggc aagcctaaca agttcgtgta cactctgacc gagaagggta agaaagcgta 8640
tcaagaagct atcgcccacg agccatgcga ctacgctggt cttaacaccc aagctaccat 8700
ccacgcgctg ttcccaactg tcgagtacta cgcggcgttt ttgcagaagc gtaacgaaga 8760
gtgtgacgcc ctgtacttcc gcaagtgtga agacggtgtg tctaagctgg aagagattct 8820
tattgaccgt cgaatcttga tcctacatgc cgagtgtaca ttcgcgcaga agatgatcgt 8880
aatgctgtct gagcagcagg aagcgattga gggcgaatct gaagaagtgg tcaagtagtt 8940
tactaaactt aaaggagcag gcgtcatgcg tttcgagact atcaatattt accacaaata 9000
cgggaagtgg atcggcggtg gtcagctaag tagccgcagt ttggcggagc tgctttccgc 9060
tgcggtaaaa cctcaccaac gcgtggtctc aatggtttac catgagaacc acggcatctc 9120
acccaactac gacatagtcc tagaaaacca cgaggtgcag gtgctggaca acgtgcatga 9180
gaaccacacg tactacgcta acaagtgcgc taaggactgg caggaggatt ccctgttgaa 9240
cccagaagcc gaggctacgc aggctaagcc agcatcactg tctcgtagaa agtaactact 9300
aagccctcgc actgccgggg gcttttcgtt atactccacc gcaaaataag gaggtaataa 9360
tatggcttta tctgacgttt ttgacgccgt gtacggaggt ggttttagta cgccgggcaa 9420
ctttgtggct ggcgacgtgc tcgaccagat cgttgcctac accgaaccat cacgctcgga 9480
ggctggcagc acgctgtcat cgctgtacac gaaataccca aacttcaaga cgacctgtag 9540
gacggagctg ccaaagcaca tgcgcgttac tagcggtgag atcagcacta tcttctccca 9600
gttggacagt aattccgcag cgacactctc cacccttgct aatagtatcg cactgaagtg 9660
gattgagcac gtaaacgaca ataggcagct ctaatccgta taattactaa aaacggagat 9720
taacaatgcg taaagaagta tcctgcttta gtaagagtgg aaagctcact aaagacatga 9780
aagttatttt agacatagcc accactatcg agttggcaat cgtaaacaat cctgacaaag 9840
accgaatcca agttattagg gaaacggctc gacgtcttaa gcaatcaccc cagtaccgaa 9900
agctgtgggc acagtcgatc ctaaacaagt acctgaacgc cgacgaaacc gtatccaagg 9960
cacagcagga cactatcgac agcctgttct cgctccgggc ggctgggtac aaaacttact 10020
aaggagattg atgtgggagc acttcctaac aacaaccgca aggagtcgaa cgactcacca 10080
gacctttacg ttactaacca cccactggct attccggggc tgttctcccg ctggcgtcca 10140
gagagcggtt ctatcatcct tgagccctgc tgcggacttt gccacatttc ggataagctg 10200
gaggagttcg gtcacgtagt acacagcttc gacatgttta actgggggcg tggtaacgct 10260
cgtgaagagt atgacgctca gtcgtaccat tacggtgagt atgagtgcat tattactaat 10320
ccaccctaca accgagctat gccaatcgta gagaacctac tggagcagaa tctggctaag 10380
ggtgggtcta tggctatgct ggtacgtctg gagtttcaga cggggaaggc acgagcggcg 10440
gctcttgagc agaccccttt gaagtacatc ctaccgttcg cattccgtat cgagtgtgac 10500
aagggtgtag tcgtggagga gctggcggac ggctcttttg agacagagtt ggagaaatcc 10560
ccgaactcat caaactacgc ttggtttgtc tgggaggatg gttacgaggg ctaccctact 10620
acgatgtaca tccaccaaga catggctgag caaacactgg cagaacttac taatagagag 10680
gtttagtaaa atggaaaata ttccggctaa gcagatagct gacgacatcg aagagctgtt 10740
ggagaacgct gctgtgtaca ttcagcgtca ggttaatccc atgctcttga agatgcgtac 10800
agagcagtgc atcgaccttt acggatttgt gatggatagg gactccacgg ctactttctt 10860
ccactgcaat gtacctgcgg aggagatacg cggtatttac gccagcacgg gcgaggtact 10920
gatccgtaaa gaagtaccgc taacgcatgg tcgtttgtat ccgtcactgg ctctggctaa 10980
gaaccgtgct agtcaccgag tggctaaccg tattgagaag ctgcgagcgt acagtcgatc 11040
actgtcaaca gtcaccacga acgacgtcag caccatccaa gttaagtagt gtactctacg 11100
atgcaggggc ggcacgtctg cccttgcatt gtgctaaaga gttgaacgct gtgtacaacc 11160
acaagagtga atttttagtt agacgtatat ttgtatgaac cattttacta agagtaaggg 11220
agatgataag acgagagaga agaacggctg atcagcctgc cattatgtgg gaatgggaag 11280
acctaaagga caaccctaat aaagtcgtat ccgcactact tacaagctcg tacctgtatt 11340
acctgcgcgg cgacttacgt cccataatgc gagacgaaga ctttgaccta tgttgcaaat 11400
tactaagacg tagataccgt gaagtaacgc acatgcacaa gtccttgatc aagatgtccg 11460
acctacgcgc cggaaccttg tttagactcc gggaccacga ttacccaacc atcacgaagg 11520
tggtggctgt agaattgtct ctggggacga ttaacgacat gaggctacca acgcctcaac 11580
ccaccgttaa aaacgccacc acgagccgga gaactcgaaa taaagctgct cctaggcggg 11640
agcgtagtcg caagaagggg tttttataag atgactatca ccgggacgct aattatccta 11700
ctcctcatga tggaggcgct atcgtgggga ttctgggtac tatggcgtaa gttagtaaaa 11760
tcaggacgca ttcctaccat caagtttaat aagcgccgac actggtgtga ccttaagtac 11820
gtctacacgc gtgctgagtg gcgggggcat aggactccgt tcgtatgggt tactgagcgg 11880
gagtatccga taccagagtt tactaagaac cacccggacg agctggcgac agcggcggtt 11940
cgggactttg ttgcccagct cataaacgat agtgagttcg tactagatgc cgccgataaa 12000
gaggagatgt tctcgcagta cagtatctgg cttactaaac atgcaatgcc ggacaacggc 12060
tacgcgatca tagaagactg gcgagaccag ctaaacccag cgaaggatgg aattgacgat 12120
gaataacgat aaagtgaagg aattactaat tgagcagtac ggggcgctat tagaggagcc 12180
aacagatttc tttatacagc ctagagatga tgagttcttc ttcgagctaa acaacactaa 12240
ggcgtattca atccgtaacc cgtgggatgc gagccagccg aaggtcccta cggtggacac 12300
ctgcgttacc gctttcggtg agctgtgcgc agctgctggc attttcctaa acgaaactgt 12360
gcagggtacg gaatttgtgg gagacggtac tggtaagttc gacttcctaa aaatcccagt 12420
gcgcggggtg atcgtggcta tcacggttat cgaagctcca tcctcgcttg gggctgtgca 12480
agttatcggt cagactgcgg atcgttgctt tgctctggtt acggtctacc gcgaagactc 12540
acagataaat agtcagggca atgagttcat cgctcagact atgaatctga agactggcaa 12600
agtacacaca tgcctgttcc gtctagctgt cgctgaagac caagacacgt tcccagtgta 12660
cgttccgaag atggtgtcag tgaatggcta ctacaacgcg caggaagccg ttgacaacca 12720
agctgaagac gttaagaata tggtcccagt ggctgacttt actgagtagg tcactaggcg 12780
aaccggactt ccttcgggaa accaaagccc tcacatctag cggtgtgggg gctttttttg 12840
tatcctacgg ctgacaattt acttaacgag gactgcgtat ggcagacata aaggagggcg 12900
tgcgttcgaa actagaccta tatgaagtgc agctagggcg ctgcttttac tgctgtaaac 12960
cgatgtctcc gggctcttac caaccgagcg tccgtgccaa cggctttact agggaccact 13020
ttataccgaa gtgtgagggt gttcccggat ttcacaatat tgttttaagt tgtaagtact 13080
gcaacgagaa gaaggcagac aaggagcctt caaataaggc tctggctaaa tacgagttat 13140
tactaagagt aagggctgtg ttccctgacc ataatcacaa agactcggta cggctttctc 13200
gttggaagat taagtacttt taagtttagt aaaggagact atatgagttt ctggcgtaaa 13260
gaagagccag tgatggacga gaacggcaaa ctgatcaaag gcggcatgtt tgcccaccaa 13320
cgtgagtttt gggaatcaga gagtttcatt accgcgttag taaccgggta cggtggtggg 13380
aagaccttta ccgcaggcaa gatcagtatc tcaatggcac tggagaatcc cggcataccg 13440
tttatgtgtg tgtctccgtc gtacaaggta gctcgtaaga cgatggtaat tactatcaag 13500
gaactgctgc aaggtaagca gtctttgcta gagggtttta gttggaagta caacaaggcg 13560
gattgggagt tcttgatccg atacaaaggt cgtgagggta ttatctggat cggctcaggc 13620
gatgacccgg acgcccttaa aggtcctaac ttgtgtgggg ctctgattga cgaaccgttc 13680
atccaatcac gcgaggtatt cgagcagatg cttgctcgtg tccgtcaccc taacgcccgt 13740
actaaacgga tcatgctgac aggcaccccg gaggacttga actgggggta cgacatcact 13800
gagggtgagg agaaggagaa cttcgacgta cacttggtgc aggcatcttc gaaagaaaac 13860
aaagcacttg gtaaggagta cacggaacgc cttgagcgtg gtcttagtgc tcaggctgcg 13920
gagtcgtacg ttagtggtaa gttcgtaccg ctggctaagg gtcgtgttta ctacggcttc 13980
actcgtgagc gtaacgttat ggagttcccg gagattccta aaggagctaa gattggattt 14040
ggtctcgact ttaacgttaa cccgatgtcg gcggctatgt tctggtcttt gaatggacac 14100
atccacttct ttgacgagat cttactaccg aactcggaca cctacgacat gtgtgagaca 14160
atattggctg agtatggaca gtaccgccct atctgttacc cggatgctac cgggcgtaag 14220
cgtcagacta acgccgctgg cggtatgacc gacttccgta taattaggga tgagtacaag 14280
atcaagattg acgttggttc taccaacccg cctaagcgtg accgatacaa catagtaaat 14340
ggcaagctga atcctaagaa gggcttgcct actatgacta tctcaccgaa gtgcgtgaag 14400
atgatccgtt acttagagtc gtactcacac gagaaaatga agcaacaaga agagatgtcc 14460
cacatcttgg atgctatggg ctaccctgta gcgaggatgt tcccgctaca catgcgtgcg 14520
ggcgttacta aacttgcagg tcactaagga gattttacta atggctgaag aaaacaagaa 14580
ggctgagaaa gttacattca cagctaaaga gattgagcac aagaataaga tttacaccca 14640
gaagattaaa cgctgggaga agaaccgcct agtgtgtgct ggtacagacg ctgtgaagga 14700
ggctggcgtt aagctgttgc ctcagttgga aggtcagtca accgacgagt acgatgctat 14760
ggtagttcgt gctaacttct tccccggagc tctacgtgcc ctgcacggta ctaatggtat 14820
gatccacgcc aagactccaa ccatcacgtt cccggaaggc aagatgtctt atttagataa 14880
catcggtcta tcgggctcat ctatcgcgga agtggcagag gaaattaccg aggagcagat 14940
gctccaaggc tgggtgggca tctttgcgtt ctacaactcc gttccgggta caagcgagct 15000
aaagccgttc ctgtcagtaa tccgcgccga gaacatctgg gactggcgct tcggtgtggt 15060
aaatggcgtt aagcaactaa cgtacgtcaa gttcgttgaa tacgtcgagt cccctgactc 15120
caatatgttc ctatccgttg agattccgca agtaactcag ctgtggttag acaagaatgg 15180
taagcttaac taccgcattg tgcagaagca accgggcgag cagaagggtg aagcttcatg 15240
ggtccaaaaa cagggcggtg cagttttagt aagaggtaag gaagtcgagg gagttccttt 15300
ccgtttgatc ggtgcccgta agatgtcggg tcgtccagag gaagctccta ttgagcctat 15360
cgtagacgtc aacatctcac actatatcac ctccgccgac ttggagcagg gtcgccactt 15420
taccgcactg ccaacaccgt acatctgttc cgcatcgtta gacccagaca aggacttccg 15480
catcggtggt tacaactgct ggatcatccc ggagaacgaa gccaaggtag gtatgcttga 15540
gtacaccggg caaggtctgc tttcactgga gaaagccgat actgagaaga aatgggaaat 15600
ggcagtactg ggtgctcgca tgctccagaa cgacaagaaa gccaatgagt ctaaagacac 15660
ggtccgacta cgtcagacgg gtgagaacag tatcgttact aacgttgcac gccagtgctc 15720
cgtagcacta acctacctcc ttggtaaatt cattgccccg tggaccctcg tctctagcgg 15780
tacgaaagta ggcttcgtgc taaccacaga cttcttgacc atcgagatct caaccgagat 15840
gctgaactca atggctgcgc tggtggctac cgacaagatg tctatggaaa cattcttcta 15900
caacttgcag cgtggtggta tctacgaagc tggcactacc cttgagaaag agatgcagcg 15960
tatcgagaag cagtttgaaa agcagatgaa gcaacttggt cgtaagagtg acgtggtgga 16020
cttagacgat gaagaagacg agatcccgga cgatgagcag gctaagaagg acgagaagaa 16080
gactgcgact aatgaccacg tagacaatca agctaagagt aaggattagt aaatggcgaa 16140
ctttagtgac aatctggcgg tagtttacgc agaccaccag attgacctat accgctatga 16200
agccaaccag cggcaagaca ttgccgcttt cctactggca atggcggacg agataagaga 16260
ggcgttacta aaagctgact tcggctcaca gccgtttgtt actaaacgta aactcaatgc 16320
gttactaaaa gaaatcgaag caatcatcaa gcagtactac aaagacgctc gtgactacca 16380
gctaggcgag ctgaagcagt taagcgtaat cgaatacgct tgggctatgt ctgcgatgaa 16440
caacaccatt ggtgccagcc tgttcgagac cttccttact aatcacttcc tagagagtgt 16500
cgttagtaat gtcctgattg aaggtgctcc gtctaaagag tggtgggctc gtcaggctac 16560
agacacaatg gagaaatttg tagaccagat acgtatgggt gtagcactcg gtgagactaa 16620
cgatcagtta atcgaacggg tgaacggcaa gttcctccat aagttcggca agcgtaagat 16680
gtctgatggt aaggttaaac gctacggctt gtacgagggt ggaatactca agacatcgcg 16740
ctctaacgct gagactttag taagaagttc cgtgcaggct attgcgaatg atgctaagat 16800
gcgaatgtac gcagctaacg acgacctact gcatggttat caacagctat cggtactgga 16860
cttaaaaaca tctgacatct gtatcgccag aagtggtctt gcgtggacgg tagagggtaa 16920
gccgattggg aatcacaaga agcgtttccg aatcccccct ctacactgga attgccgatc 16980
actgctgtta ccgattctga aatcgtggca agatatgccg ggtaaagtgc gtactagcct 17040
tccgggaagt atgcaggcaa gtatggatgg tctagttagt gctgaccaaa cgtacgaaga 17100
tatgctcaag cgtcgtacag atgctgagat caagaagaag cttggaccgg gtagattcga 17160
gttgtggaaa cagggtaaac taacactacg cgatctcacc gaccaagatg atcgaccatt 17220
aacattgaaa gagtatcgag aaagtgctta aaatacacct cgattttact aacagtaaca 17280
gaaaggaaat acaaccatgc ttaaattccg tgtgcagaaa ctagacgacg tacaagaaga 17340
gttccgccac ctatacatcc aacaagctga cggctctttc ctactcggtg tagaaggtgc 17400
tgtggacaaa gctaaggtag acgagttccg taactcaaat accaacctgc aatctgctaa 17460
agagcagttg gagcagcaac tgcaacaaat ggctagtaag ttcgacggtc tagatccaga 17520
gcaagctaaa gaagcgatgg agatgatgaa caagatccgc gaccagaagc taatcgaaga 17580
aggcaagatc gaagaactta tcgaagcgcg tactaaagac atgcttacta accaccaaac 17640
tcgtgagcaa gagcttacga aatctatcaa agagtgggaa gagaagtttg gtggtcttca 17700
gtcaaactac cgcaagctta agatcggctc agacattctc ggtcagctag ataaaatcgg 17760
taagatccac ggttcttctc gtgacatcat taccgaccta gctgctcagg tatggcagtt 17820
gaacgagaaa gatgagttag tggcaatgaa gggcgaccag cgtgtgtaca gcccagcaga 17880
tgctactaaa ccactatcag ctgaagagtg gtgtatgcag ctggctaatg accgcccata 17940
cctgtttgag tcaactacct caatcagctc tggtcaaggc ggtcagggtg gtcaaggcgt 18000
taagggtgtt atcagcggtg atgacatgga cgcatttgag aacaaccttg aagcaatcgc 18060
atctggtgaa gttcaagtaa acgtctaact ctgaatttta attttagtaa acataaagcc 18120
accttcgggt ggctttttta gttttttatt aataaggggg ttgacgaact tagttgtttg 18180
ggttttataa tgtaaccaac aaaagcaaac ttgtttagcg gcggggtcgc ttctcaaggg 18240
tttcggggaa accatgcgaa ataacttatc aaacgacaac acgaggactt agcactatgg 18300
ctaatacttt agaagctgtc gccccgaagc tgttagctca gggcttaatg gcacttcgtg 18360
gcacgaacgt aatgccgact ttagtaaacc gcgattatga tcgtgatctt gcagccaagg 18420
gtctgacagt ggatattcca atcccttcag cggttcctac tcaggacgtt gcaccgggcg 18480
caacacctcc taacactggc gacgtagcgc caacagtagc gaaagttaca ctagacaagt 18540
ggaaagaagc acctttctac ctaacggata aagacgttaa gcaatcaatg aacggtatca 18600
tcccgcttca agcgtctgaa gctgttaagt ctcttgtaaa cgacgttaac gcggacatcc 18660
taggcaaata cacttctgta tacggcatgg taggtactcc gggcgtaact ccattcggtt 18720
caaacaccaa agaagcaact gacgctcgta ctaagctgaa catccagctt gcaccgggtc 18780
aagatcgtcg tttcgttatg gacccatctg cggaaggtaa tgcacttaac ctacgcgcat 18840
tcaacgacac taacttcgct gtgactgctc agcaagtacg tgacggtaaa atggctcgta 18900
aactaggctt cgattgggcg atggatcaac aagtacctgt tcacgctgct ggtctttcgg 18960
ctgcggctgt taacggtgct ggtcaaacag gcaaccaatt agccttcgac ggtggtgtag 19020
acgctgctga cggtggtact ggtgttaaag ctggtgacat cttcactatt gcgggtgacg 19080
ctcagactta cgcagttgta gcaactactg gcgctaaagc tggcactatg accgtgactc 19140
cggcgatcaa gaaagctccg gcggacgacg ctgtgatcac gttcaaagct actcacactg 19200
ttaacttggc attccaccgt gacgcgtttg cattcgcatc tcgtcctctg gctgaccaaa 19260
ctaacggctt gggcaacatc atccgtactg caactgaccc ggtaactggt ctagcactac 19320
gtcttgaaat cagccgtgag cacaaacgta ctcgtttctc gtacgaccta ctatggggtt 19380
catctctagt acgtccagaa ctggcagtgc gtgtagcggg ctaatcccgt ataggtcatg 19440
ggaggtaggg ttatcccgcc tccctatttt tttaagttta gtaaactgag agtacgaatt 19500
atgagtcaaa ttgacccgca agagatgctt aagcaaatct tagctgcatc tgataaccca 19560
gcagaactac tacgtggtgc gatccaagaa gctacaagcg gtgagaacgg cggcaacgct 19620
cttcaacagc ttgaattact tctagcatct gaccctaacc taaaacacca cctacgctct 19680
ggtatgcctg catccgtgca agaacaccta cgttacgtac ctacaatgat tgttacgttt 19740
actaatggtg ctttcggcgg caaaccaatg gtgatcaaca agtcggactt cgacgctgac 19800
cttcacgaag aagttgacgt tgctaaagct gttaaagcgg ctgctgcttc tgctgctaag 19860
caagaagagc ctgtcgtcga tgaaggcgct ggcgaagacg ctacaggcga aacggaagat 19920
cagaccgaag acgctcctaa gcagggtcgt agccgtaacc gccgtagcta atcagtaata 19980
cctattacta acgttactgt tgattggaag gaggaggctt agcttcctct tttttgtttc 20040
tggagattac taaaatggca atcacattaa ccgtacagac tggaatctac ccggtacgca 20100
atgccaacgc gttcgcgtct gtagagcagg ctgacaatta ccatgcgcag cgtggtaata 20160
cagagtgggc aggcttcgac gccgacaaga agaaagcttc actgatcaag ggtgcagact 20220
tcatcgctca agagttcaat ttccgtggtc gtccgatgta cagcgaagaa gacccgacta 20280
acccacagtt cctaccgttc ccccgccatg acttcgtaga caaggctggt cgttctatta 20340
ctggcacgcc ggaaggcgtt gttcgtgcta acatggagct ggcattgttt gccggacgtg 20400
gggaccttta ccctaaccag accacattac taaaaccggg tggtgctgtg actaaggtta 20460
gtaagaagac gggtccattg actactacgt acgagtacgc aaaccctgta gccgttctgc 20520
actcaacacc acactacaag aaggtgagca gctggcttaa ggactacgta tacactaccg 20580
ggcgtattca ccgatagggg attactaaaa tgtctaacgc ataccaagag cagatcgacg 20640
acgctctgga aagtatcaag gaagcaggca agcagttcga cttcgcgctt actacagtgg 20700
gcaacaaccc ggataagccg tggctaggtg gtacaaccac aacaaccgat gtcaagctgt 20760
gggcttgtgt ctttccggtt agcagtgctc cttctgcact acgtgagccg atgctcaaac 20820
agggcaccat gatcgaaact caaatgcgct acgtgctagc agctggtgaa ggaagaacta 20880
cacacccaaa cacaggtgac gtgctaaagt catttgaggg gaacgactgg gcaatcatgg 20940
catgtgcgcc tcttaccgtt aacggggagg ctgcgatcat ttacgagatg gtagttaaac 21000
gatgaacgac atagaagcac gagaacgcat taaccaagaa cttactaacg gctgggcgac 21060
ccattctgcc acggttgata ttgcctacga gggcgatggt tacaaaccac aaccgggcaa 21120
ggcttatatc gaagttattt tcagtgtaga atccacttca agccagtcgc tgggtgatga 21180
gggtaatcgc tcctttatcc gcgatggtgt tgtacacgtc aacgtgtaca ctccggctaa 21240
caacggcaac gccttcgcag ctcacatcta cgctatggct gtacgtgata ttttcgaagg 21300
taagcatttc ggggaccttt ggttctggga gtgtaaagca agtcctgccg ggaacgatgg 21360
gacatacaac gtagcgtacg caaattgtgc gttccgcttt cagcaaatca agtaggagaa 21420
ttactaatga gtgatactaa ccgcgtacgt cttgccattg tggaagagac tacaccgggg 21480
actgtcccta acaaccctaa gttggtacgc cagcgcgtta ctaacatgcc gtctctagcg 21540
gtaacgccgg agactatcga atcggaagaa ctggacccgt ccatgcagac aacagaccta 21600
atcaaagtag gtcaggctgt tggtggtgag ttcggtatgg agttcagcta cgacgctcag 21660
aagcaatcaa tgatcggcat catgcgtaac agctggaact cgttcacgca gtacaagggt 21720
gatgaagttg gcgctatctc agctggcaaa gttgctgtta ctaacgtagg cgctgcgcta 21780
cctgttggtg cgctggttct gttcaagaac ttcaacaact ctgctaacaa cggtgttaag 21840
cctgttacgg ctgcgaccac cacagctatt acagctacgg gcttagtagc cgacgcgtct 21900
aagacgggta aggaagccat tcacgtagtt ggtctgcaag gtggctctgg tcatctgact 21960
gtcaccgcaa acacgcttga agctacgtca gggtcggaca tcgactttac taactttaag 22020
ctacgtccgg gctccttgat caagctgggc ggtaaggacg cggctaaccg cttcgctacg 22080
gctaacgtga acgctatggt gcgcgttact aaaattgaag ccaagaagct tacgctagct 22140
gacctaccta ctggatgggc tgctgacaac ggtgctggta aaactattca agtctggttg 22200
ccagaggacg acattgtgaa cggcgtggct accaagtcat tcacgttcct gcaatcgttc 22260
ttggaccaca acccggtaac acaccagatc ttcaatggta tgcgtatcgg tactatgaac 22320
atggagatgc gctctaagca gatcgttacg ttcagcatca acgctcaggg tactaagggt 22380
gctatcgacg agacgggtgt ggcgggtgct actatcctgc cagcgtctac agatgtggta 22440
atcaacacct cgtctaacgt tgcggagcta cgcgaagctg gtcgtaagat tgaaggtccg 22500
aactacgtga caggcgttac actggcgctg aacaacaacc cacgtaacga cgacgcaatc 22560
ggctacgagt ctccggttaa catcggtggt ggtacgttcc agctgacagg cacgctaaac 22620
acgtactttg gcaacaagtc gctagttgag aaggtgatca acaactcgac aacgtcactg 22680
ctcctaaact tcaaagacgg tgaaggtcag cacgtggtgt tcgatatgcc acgcgttaag 22740
tactctagcg gctctccggc ggtatcaggc aagaacgcgg ctaataccgc agaccttggc 22800
tacacggctc tgaaacacct agactacggc tacacgctag gcattcagaa gttccgttac 22860
atggagtaaa tcgaagcact tgcgtcgagg cacaacctag aataagatca aagcgtccaa 22920
tacgggcgct tttttaatat tagtaaacaa ggaaatccca tgaagaagac taaccctttc 22980
gctctattcc gcacctctac taacgacgaa gtgaacggcg tagtggtaaa ctacggctca 23040
ttccgcgtta cagtggcgta cgctggcggc gctaacacag actacaaccg tctgcttatg 23100
aaacttggta agccgtactt gaagctaatc aagtcaggca acctgccaga agaagttacg 23160
aaagagatcg atgagaagct ttacacgcag accatcatca agaactttga agtagacgta 23220
gctgaagaag gtgcagaagc tccagtgtgg aaacgcggca ttccaactga agaaggtgaa 23280
gtcctagact acaacgaaga gaacttagta agcctactac gctcccttcc acacctattc 23340
gaagacatta agtcattcgc tcaggatatg tcgaactaca aacctgatct ggaagtagct 23400
aagggaaact aatagagttt ctaaagcatg agctggaata cggggacgat gatttcacgt 23460
ttatcattga agccgcaatc gaagccggag acccacttcc ggcttttgct tcagaagcgc 23520
cgaaactcct agacccatta gtaccaacct ataacatgtt ctgggatata taccgataca 23580
gacgtgttat cgccagaaat gattttgtcc cttgggaagt ccttgaacgg ttcgccgcta 23640
agtacgggat tgaagagctg ggagagtttc aagagttctg tgagttgttc cgcgagatgg 23700
agaaagttta cttagaccac ctagtagaac agtacgaaca ggaacagaag caggaccaga 23760
atcaacaagg gggacagcat ggcgaatttc tcggacatac ctaaagatct aaagcacttc 23820
gctttcaccc tccaagctaa taccgaaaca aggcagcgtg aagttgcctt gaccattacc 23880
agagagctta tgcagcgaaa ccctaagaag acgggtcgtt ctgctggcaa ctggcaggtc 23940
ggtatgaatc gccccaaact aattgcacag gctcctccgg tagcggagag ggcttcggat 24000
gaagaactta gtaaaagttc taaattgttc gtgcagaaac aacttagtaa agcgattaac 24060
gatattacta agggaactct acgcggggat gacccggtaa tctatattag taataccatc 24120
aactatgtag tttacctaaa caccacccga ccatcaccac aggctgctcc gggctggatt 24180
gaagcatcga tccgatttgg cgcagatagc actaagggag tgaaacttac gtaatggctg 24240
gtgaaagtta cattatcaag gtacggcaac acggtgcgcg ggaggtcaaa cgatcactcg 24300
atgacatcgg tgctagtgct aaacagacca cgagcacact ggaggggatg cgtaagggct 24360
tgaacctcct actgggtctc tacggtctaa cagcactaca gcagtatgcc gacgaatacc 24420
aaaacttgga tgcgaagctt aagatcgcaa cgcatagtac agaggagctg gctcgtgcgg 24480
aggaccagct tttccgcatt gcgaacagaa cgtattcctc attctcaagt accgttgacc 24540
tatacgcacg ttttgagcgt tctacacgga gtcttaagat ctcgcaggat aacctcctac 24600
agatcacaga gacggtgaac aaagccattg ccttatccgg tgcaagtact caggctgcta 24660
acgcggctat cttgcagtta ggtcagggta tggcggcagg cacactccgt ggtgacgaac 24720
ttaactcagt tctcgaacaa gcaccacgtc tagccgaggc aattgcttcc ggtatgggcg 24780
ttgctgttgg taacttgaag cgtcttggtg agcagggact tatcacaacg gaagaagtac 24840
tcaacgcact tgcgtctcag ggtgctgcta tcgacaagga gttcctaaac gtaaacctta 24900
ctattggtaa agcaatggag gttctgaata accagatcct acgtgccatt ggtcagctag 24960
atagtaaact aggcatctcg tctaccatcg ctaagtctat tgtaacgttg agccaaaacc 25020
tcgaccaagt tgcaggagcg gctcttggcg ctgctgctgg tcttgcagta atgtacgcgc 25080
cagctttact aaaaggtctg gtaactgtta cgcgattagt aaaagggcta actcttgcga 25140
tggtttctaa cccgttgggt gcgatggcgg tagctgctgc cacccttatt ggctatttga 25200
ccattatggg cgaccagatt aagcctctga gcgatagttt cgctactgtg gcggacttcg 25260
ctaccgctgg cttcgatatg gcgtcagaat cgctctcagg gctttacagc ttaattgagg 25320
atgacgtcaa ttctgcacta agcaccatgc gtaccacagc agacgagctg tttactaaga 25380
tgggaccgtt aatcgaccaa gcaatgtcta tcggttacga cgctatcaac aaagtgatcg 25440
gggcgttcgt tatcgctcgt aaggtcggcg ctcaactatt cgaattagta ctacagggtg 25500
cttccggtct atgggaaggt ctaacagcat tctacgactt ctctgtaggc ttggctaagt 25560
cgatgttcca gactgtcggc ggtattgcaa acacagtgtc gaagagcacg ggtattacgc 25620
tggagtcgct ggcacaagga ttcaagcaag tgcttaacat tgctatcggt gtgttcacgt 25680
taattccgcg cctagcattt actatggcga agaatgtagc gaagaacttc gaggcgctgt 25740
ttgcagatat tactaatatg ggctccgcta caatggaggc tctaaaagta gcgttctcag 25800
gtggtgactt tactgaagcg ttcaacaaga tccgggctca gtctaatggc gctattgacg 25860
gtatgggcga tgacatctct agcgttctta aggacacatt caaccaagac tatgttggcg 25920
atcttatcgc taagactgtc gagctgaaag agcaattcat ggacacgttc ggtgatgacc 25980
ttgcacaaga ctacctgagt gacgctcagc aatctctaag cgagttctac aaggagttca 26040
aggcacgtgc tgaagatgca gctactgccc gcctagcggc tgagcaggaa gttactaaag 26100
agtacgagaa gcagaacaag attgtaggtg gtggggatgc tttcagttct gaccagattg 26160
ataagtttac taagaagctt aatgcgatgc gtgagactct taatggactc gacccaactt 26220
gggaacgctc aactgagatc atcaacatct ggcgtgatac agcacttaac gcggtagaca 26280
agaactggga gcgttacgaa gagtacgcga acatggttga ggaagttacc cgcgagaaga 26340
tcaacaaagc ctactgggag cacatggacc aatccgaggc tgctttcgat ggtatgatct 26400
cagccgctca taaaatgcag aaggagtacg acaactctgc tgaactcatg aagaaaggca 26460
tgggtacagt gattgacggt cttactaacc agttcatgcg ctttgctatg actggtaagt 26520
ttagcttcaa agagctggct gctggcgttg ctgcttctat cgctgaaatg atgatgcgta 26580
tgctcgtcat gcgtgcggtt ctggctgcgt tgaacgtaat tccgggcttt gccgctgcta 26640
tggctggtgc cgacgttgct ggtcaggctg caaccgctgg cggggctgct gccaacttcg 26700
ccacatccac ggctgttcta cagcaaggta tgggtcaggc gcaggctgct aactcaaaga 26760
tgtacgctaa gggtggtgcc ttcagccgtg gtgttgagat gtttgctaac gggggtgcct 26820
ttactaacag tgtggtatct cgacctacaa acttcgcaat ggctggcggt cttggtatga 26880
tgggcgaagc gggaccagag gctattatgc cgctatcgcg tgggtctgac ggtaagttgg 26940
gtgttcaagc aagcggagcc gcttctccag aggtgaacgt gttctttgta caaagcgccg 27000
atgaagctgc ggagctaatg gctcaaaacc cgaaagcaat taacaaatta gtaagggcta 27060
ttgacgaggc taaaggataa atatggcata tcaaaaaggt actgctagca gtcatacaga 27120
cctgttagta aaactccaca cgttcgctac gtcgaacggg tggacatcac agaagaacga 27180
ggagtccggt ggcgagcacg agatcgtcct caagtccaca ggtacgggtg gaaacgattc 27240
gattgtactg gcgttccgct cgaacacact gcaagcgtct gatacatata acatacgatg 27300
ccgcgtgtct gctgcatacg ttacctctgc gtttgacaac ataacggggg cgtctccaga 27360
gtcagtactg tacgcgtgga atgccgatat ggagtactac tttattgtta gtaaagagcg 27420
gatcatgatt ctgtttacag tatctggcgt ctcgcagtac tactacggtg gtaacatgca 27480
ggtgtacacg tctcgtggac actgggtaag cccactctgc tgcttcgggg tagggaccag 27540
tgctacagct cgctggtccg agcagggtaa cgacttctcc ggatggcagt acgtccgtgg 27600
ttctaatccc aaccatatac tggatgacac aggtgcatgg actaaacccg attacttttt 27660
cccgaacatg gatacggcgc ttaccagtaa gatgcgtgcc tacgacaacg gcgacatccc 27720
actcctaccg atgttcgtga ggacagccgc tcgcggtatc gtaggagagc tgcatggtgc 27780
cttcgggtgt ggtgggttcg gtgcctctca cggacaggaa ttaacacact cctctggtag 27840
acgttttgta atcctacaga acgtgtaccg ggcgggtaca acagactaca tggcgatgga 27900
gctagcgtaa tgggatacga gaatgctact tacaactcaa gggtagagct tggtcagaag 27960
tttgccacgg ctattactaa tctggggggt actgtcaaac gtcagtacca gaacactgtc 28020
aacggagagc ctgcatacca agttatcgtg caagtggcgt ctgacgtgtt tatgcactat 28080
gactttcggt ggcaccgctg gtactcacgg agaggcacta cttaccaccg cgaggggcta 28140
tttactaaaa tgggaactgc ttacgttgac ggagctgaca cggtaagtgg gatagtcagc 28200
agcaactttg gtggtggtgg tggcgcacag gtatctacta actggagtca cctccaccag 28260
tacctaccca ttcccggaaa ggtacatgtt gctcgcaacg gcaataccgg ggaatttgta 28320
ctctgtatgg agaacccagc agactctaaa gcagtactgc atggggtagg gcgtatcata 28380
atgcaggaca caactttcgg ctccgtaccg cagtggtggt ttgatggtga gtaccactat 28440
cgagatgcca actcagccga tggggtgtac ttcatggaga atactgatgg gactggtcgt 28500
tcggctcggt ggtcagggca gctacagcag cgcgatagtg ctggtgctgt aactgggtac 28560
gaggcgatgg gggcggcaga taaagcttgg cagcgtccta tgaccgggta tcaaccacta 28620
gggaggcttg gtctctacag tgctattgtg ggagacctaa gttttgagcc gtcgcttacc 28680
agtatcttcc tgcctgcgct gtggtgcggt gtcatgggca cggactatac gatccgagcg 28740
cctaggggtg atcgtccaac gttcaagatt tgcaacatgc gttacttagg tgttgggcag 28800
gagattatct acaacaacca gtcgtaccga gtgttcccat gcttaggtaa gggtggtgag 28860
agcactccgg ggatcgcatt cttagtagga gcagcatcgt gagtaatgca gtacttttta 28920
gtaatgcgtt cggatacaca ctgaaggcag atccaccgcc taaagttaat acgcctgttt 28980
acatggctcc ctcctacctt cgggtaggag ttccgaatgc gcgaggtccg tggctaaaat 29040
ctaaggcatc ggtggcgggt gttccctatg gtggattctg ggactctttt aagaactccc 29100
tattcatcca gccaaacaag atagatttag ggcttgtgct tagtcccagt acgcattcca 29160
tccgtgtttg gagttcacat gagcagtcga tcactgctcc taacatagcg gctacaggca 29220
acggaggcat gtcgcttaca gggaccacct ctaatatcac actggacgcg ttcggcgggt 29280
acaaggacta tacgctggac gtgtcgctgt ctgtggctgg cgtaattgac gcgaagtatt 29340
catggaactt ccccggactc ccggagtctg tgagattact aaacgtaatc gggcagagga 29400
tcgtagtgtt tggcatccca ccacaaaaaa gaatggtgga gaagcttagt tggaagaccg 29460
atgttatacg taccctagac ggtgctgagc agcgcatacg tattcgtgag aacccaatgt 29520
ctactatccg ctacaagtca gtcacaggct atcttgatac ggcaggcgcg gaggctttga 29580
tctatcgact aggtcacgac gacgtggcga tcccactatg gcacgagggc gtacgttatc 29640
cgggagttct agctgcgggc gtgatccgga ttgacgttag cacggcggct tcatcgtttg 29700
ctgttgacga cttagtaata ctgtggaaag acttcttcac ctatgagact gccactatag 29760
ctacagtagc tgccgaccac ataacgctta agaagccgct tgtcggtact tgggaccgac 29820
cactggtagc ccctttagca tatggtctta tggacaacgt tacttttagt aaatataaga 29880
tcaacgtgtc tgagaataac gtggagtaca cccgcaacgc tactgtgagc atagctgggt 29940
ctgcaacgta cccactctac gatggaatcc ctgtgtacgg gaagctgctg tacatgagtg 30000
gtaagtcatc acccgctgct tatacaccat ctgttgactc gctggattat ggcattaagc 30060
ctagatccca gaagaagcgg tatgacttcc cagacgtaac gcgggacatc ttagtaaaaa 30120
tgtacagtcc gctagaggta atgaacttta agaagttcct gacctacttg ggcgggaagc 30180
agaagccatt ctggtacgtc agcgattggt gggatttcaa cccagtgggt aacacgccta 30240
ccactgagac cgtgatacgc atacaggaca tgggattcct agagtactac gcaggtgcgg 30300
ttaaccgtaa gtggctagcc attaagccga agggtggtgc ttgggtgtac cgtcaggtat 30360
cctcagttgc gaaaggcgcg gacattccgg gcgagcctaa gaacgaagct atcacaatag 30420
acacagcctt accctttact tttagtaaag acacggttga gaagattagc ttgatggtcc 30480
cagttcgact ccagcaagat gaggttactt tcaattggga tggtatggag catataacag 30540
ccagccttcg ggttgtggag gttactaaat aatgagctac acagataaag aggatagctt 30600
gtacgacggt agaccagtaa cggtctacca cttcaactat ggcaacgagg actactggta 30660
cacatcttcc gacgaggaca tactgtctcc cggcggtacg gctaccagca tccatattaa 30720
gcacgggact atgaaagaga ctacagagga taagagatcc actgttaaga ttgagataga 30780
tgctaatgtg cctctttcta aagctcttcg cataaacccg gcggactcgg tttgtcgtgt 30840
gaatatccta cgcgggcatc gaaatgacac tgatagacag tgggtttact actggcgtgg 30900
tacggtatcc gtcgttggga gagaggaagc ctctcagtta agtttagagt gtacgcacat 30960
gctagctact ctggcgtcag gtggtctacg gtctcggttt agctacacgt gcccgcacgc 31020
cctgtacgga ccgagttgta gggctacacg ctcagcggac aaactgagga cagcaactgt 31080
tactgcgatc tccggcgcta aggtatcgct gtctgggtgg agtactacga cttggtggaa 31140
tggtgggcag atgaccttcg tgaataacaa gtaccgtcgg tatataatgt cctccgatgc 31200
tacagggata ctgctggacg cagtacctat cggtcttgcc gtgggtatgg aagtgtcgtt 31260
agtagctggg tgtgaccgga ctaaggcaac gtgccagtcc aagttcaata acctagccaa 31320
ctatggcggc tacttagcag tgcccactaa aaacccgttc caagacggaa ttgcttaata 31380
ttagtaaaag gagtaattat ggctgttcag ttactctggt acgcagtaat acttattgta 31440
tcagtgatcg tgtctgtagc cttagcgccg aagcctccga agcctgactc ccctcagact 31500
aaggatatta acgcgcctac agcttcagag aatgagttta tcccggtagc cttcggcacc 31560
acgtggctgc aaaagccaaa cgtatgctgg tacggtaata cgggcaccga tgagattcgt 31620
aagagtggag gtaagaagta atgtcagata gggtggaact actccccggc gaagaggact 31680
ttagacttta catatcggac ttcgatcagg agtccgttaa gcagttcaat tgccatagcg 31740
ggatgcgtgc caagggcaaa gcctacggct tagattggtg ggattttctt actaatggaa 31800
ttatgttctc agagctggca gctcttgagg atggtcagat taaccgatgc ttagtggaga 31860
ttttaaatgg gcggaggcgg aagtaagagc caagtcgtcg ggtacaagta ctggggtgct 31920
atgcagctgg tactttgcca ccgagggctt gagtcgattg atagaatacg cgtaggcgac 31980
aaggtggtat ccagcgaggt gatcacccag tccaactgcc taaagtacat cgacaagtgg 32040
aacacgttcg gaggggataa gcgtgagggt ggtcctgtgg gattcgcccg gttcttcttc 32100
ggcagtgacg accagccagt gagctcgttg actgaaagta tgtatcagag cggtactgct 32160
ttccgtggtg tggtcagcgt ctccctaccg aagatgtact tctcagcaaa caacccgtac 32220
atcaagcctt ggtcgtttcg ggtgaagtct taccctgaca ctccggggtt agctcgtacg 32280
cacgtcaaga tcgatgctgg taacggtatc gtgaatatga acccagcgca cattatatac 32340
gcctgtttag taagtcgtag tgatcgctgg ggtctaggtc tcgactacac gaaggacatc 32400
gacgtgcctt catttgcttc ggctgcttcg gcgctctatg cagagaagtt cggtatcggt 32460
atagcgtggg agaacaactc cggcgttgat gacttcatca aagagattct acgccacata 32520
gacggggcta tatacgttga ccaagtgtcc ggcaagctta agctaaagtt gttccgtggt 32580
gactacactg ttagtgattt accagttctt gataagactg tagtaaaaga ccttgagaag 32640
tttgagtacc cccagtgggg taacatcacc actcaggtaa ctgtgagtta cgtggatgct 32700
gtagagggta aggagaagcc tgttaccgtg cataacatgg ctgctcgtga tgtgcagggt 32760
agggacgttc cagtggagat agacttcccc ggaattaaca cacgctggct agcttcccgc 32820
gttgctt 32827

Claims (8)

1. Vibrio alginolyticus phage vB _ ValS _ R12Z with the preservation number: GDMCC No. 61738-B1.
2. A phage composition comprising the Vibrio alginolyticus phage vB _ ValS _ R12Z of claim 1.
3. Use of the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z according to claim 1 or the bacteriophage composition according to claim 2 for killing and/or preventing a microorganism of the genus VibrioVibrio alginolyticusATCC 17749TVibrio alginolyticus JL2674、Vibrio alginolyticus BVA2、Vibrioowensii3186 one or more of the above.
4. Use of the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z according to claim 1 or the bacteriophage composition according to claim 2 in the preparation of a medicament against a microorganism of the genus VibrioVibrio alginolyticusATCC 17749TVibrio alginolyticus JL2674、Vibrio alginolyticus BVA2、Vibrioowensii3186 one or more of the above.
5. Use of the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z according to claim 1 or the bacteriophage composition according to claim 2 for preparing an aquatic feed or feed additive against a Vibrio microorganismVibrio alginolyticus ATCC 17749TVibrio alginolyticus JL2674、Vibrio alginolyticusBVA2、Vibrioowensii3186 one or more of the above.
6. A pharmaceutical agent against microorganisms of the genus Vibrio, comprising the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z of claim 1 or the bacteriophage composition of claim 2.
7. An aquatic feed or feed additive against Vibrio microorganisms, comprising the Vibrio alginolyticus bacteriophage vB _ ValS _ R12Z of claim 1 or the bacteriophage composition of claim 2.
8. A method for preventing and treating the harmful infection of Vibrio alginolyticus in vitro, characterized in that the lysis of Vibrio alginolyticus phage vB _ ValS _ R12Z of claim 1 or phage composition of claim 2 is used to kill Vibrio alginolyticus in vitro, wherein the Vibrio is Vibrio alginolyticusVibrio alginolyticus ATCC 17749TVibrio alginolyticus JL2674、Vibrio alginolyticus BVA2、Vibrioowensii3186 one or more of the above.
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