Novel aeromonas hydrophila phage Aer-HYP-3 and application thereof in inhibiting growth of aeromonas hydrophila bacteria
阅读说明:本技术 新型嗜水气单胞菌噬菌体Aer-HYP-3及其在抑制嗜水气单胞菌细菌生长方面的用途 (Novel aeromonas hydrophila phage Aer-HYP-3 and application thereof in inhibiting growth of aeromonas hydrophila bacteria ) 是由 尹圣君 俊苏云 权安升 蒋基英 康桑贤 于 2019-02-18 设计创作,主要内容包括:本发明涉及一种从自然界分离出的肌尾噬菌体科噬菌体Aer-HYP-3(登录号:KCTC 13479BP),其具有杀死嗜水气单胞菌细菌的能力,并且具有由SEQ ID NO:1表示的基因组,还涉及一种使用包含所述噬菌体作为活性成分的组合物来预防和治疗由嗜水气单胞菌引起的疾病的方法。(The present invention relates to a bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) of Myoviridae, which is isolated from the natural world, has the ability to kill Aeromonas hydrophila bacteria, and has a genome represented by SEQ ID NO:1, and a method for preventing and treating diseases caused by Aeromonas hydrophila using a composition comprising the bacteriophage as an active ingredient.)
1. A bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) of Myoviridae having an ability to kill Aeromonas hydrophila and having a genome represented by SEQ ID NO: 1.
2. A composition for preventing and treating diseases caused by aeromonas hydrophila, comprising the bacteriophage Aer-HYP-3 (accession No. KCTC 13479BP) according to claim 1 as an active ingredient.
3. The composition according to claim 2, wherein the composition is used in the form of a medicated bath agent or a feed additive.
4. A method for preventing and treating a disease caused by aeromonas hydrophila, comprising:
an animal other than a human being is immersed in the composition according to claim 2 comprising the bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) as the active ingredient.
5. The method of claim 4, wherein the composition is in the form of a medicated bath.
6. A method for preventing and treating a disease caused by aeromonas hydrophila, comprising:
administering to an animal other than human a composition comprising the bacteriophage Aer-HYP-3 (deposition No: KCTC 13479BP) as the active ingredient according to claim 2.
7. The method of claim 6, wherein the composition is in the form of a feed additive.
Technical Field
The present invention relates to a bacteriophage isolated from the natural world, which infects Aeromonas hydrophila bacteria to thereby kill the Aeromonas hydrophila bacteria, and a method for preventing and treating diseases caused by the Aeromonas hydrophila bacteria using a composition comprising the aforementioned bacteriophage as an active ingredient. More particularly, the present invention relates to a bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) of Myoviridae, which is isolated from the natural world, has the ability to kill Aeromonas hydrophila bacteria and has a genome represented by SEQ ID NO:1, and a method for preventing and treating diseases caused by Aeromonas hydrophila bacteria using a composition comprising the aforementioned bacteriophage as an active ingredient.
Background
Aeromonas belongs to gamma-proteus, is a bacterium that is widely distributed around the world and is ubiquitous in soil and water, and some of these bacteria are conditionally pathogenic bacteria that may cause human diseases. These bacteria are mainly classified into non-motile aeromonas and motile aeromonas. Aeromonas hydrophila is a representative genus of Aeromonas mobilis, and is known to cause acute, chronic and latent infections through oral or transdermal infections in freshwater fish, amphibians, reptiles and humans. Serotypes of aeromonas hydrophila are known to include thermostable somatic O antigen, thermolabile capsular K antigen, and flagella H antigen, and it is known that most pathogenic aeromonas hydrophila bacteria known to date exhibit thermostable somatic O antigen.
Aeromonas hydrophila causes its systemic acute hemorrhagic septicaemia for some of the fish that are affected by pressure due to various environmental factors (such as temperature, intensive farming and organic matter in the water) and because of wounds, parasitic infections and other pathogens, and are ultimately infected. In particular, if an infection with Aeromonas hydrophila bacteria occurs at high temperature, smolt will die in large scale, black bass will develop red spot, and goldfish will develop secondary skin infection and furunculosis. Furthermore, it is known that in the warm water fish farming industry, the high mortality rate caused by infection with Aeromonas hydrophila leads to serious economic losses. Therefore, there is an urgent need to develop methods suitable for the prevention and further treatment of aeromonas hydrophila infection.
Although various antibiotics have been used for the prevention or treatment of diseases caused by aeromonas hydrophila, currently, the resistance of bacteria to such antibiotics is increasing, and thus, there is an urgent need to develop methods other than antibiotics.
Recently, the use of bacteriophages as a countermeasure against infectious bacterial diseases has attracted much attention. In particular, these bacteriophages have received great attention due to their strong antibacterial activity against antibiotic-resistant bacteria. Bacteriophages are very small microorganisms that infect bacteria. Once the phage infects the bacteria, the phage proliferates within the bacterial cell. After propagation, the progeny of the phage disrupt the cell wall of the bacteria and escape from the host bacteria, indicating that the phage has the ability to kill the bacteria. The manner in which bacteriophages infect bacteria is characterized by its very high specificity, and therefore, the range of bacteriophage types that infect a particular bacterium is limited. That is, a certain bacteriophage can only infect a specific bacterium, which means that a certain bacteriophage can provide an antibacterial action against only a specific bacterium. Due to this bacterial specificity of bacteriophages, bacteriophages have an antibacterial effect only on the target bacteria, without affecting the symbiotic bacteria in the environment or in the animal body. Conventional antibiotics, which have been widely used in bacterial therapy, can affect many other kinds of bacteria, leading to problems such as environmental pollution and interference with the normal flora in animals. In contrast, the use of bacteriophage does not interfere with the normal flora in the animal because the target bacteria are selectively killed by the use of bacteriophage. Thus, the phage can be safely utilized, thus greatly reducing the possibility of adverse effects from the use of phage compared to antibiotics.
The phage was originally discovered by the british bacteriologist Twort in 1915, when he noticed that micrococcus colonies were softened and became transparent by something unknown. In 1917, the french bacteriologist d' Herelle found that shigella dysenteriae in the filtrate of the excrement of the shigella dysenteriae was destroyed by something, and further studied this phenomenon. Results he independently identified the phage and named it "phage", meaning "bacterial phagemid". Since then, phages acting on pathogenic bacteria such as Shigella, Salmonella typhi and Vibrio cholerae have been constantly identified.
Because of the unique ability of bacteriophages to kill bacteria, bacteriophages have since been discovered and have received much attention as a possible effective countermeasure against bacterial infections, and many studies have been carried out in connection therewith. However, since the discovery of penicillins by fleming, the study of bacteriophages has only been continued in some eastern european countries and the former soviet union due to the widespread dissemination of antibiotics. Since 2000, the limitations of conventional antibiotics have become apparent due to the increase of antibiotic-resistant bacteria, the possibility of developing bacteriophages as alternatives to conventional antibiotics has become prominent, and thus bacteriophages as antibacterial agents have attracted attention again.
As mentioned above, bacteriophages tend to be highly specific for the target bacteria. Because of the high specificity of bacteriophages for bacteria, bacteriophages often exhibit an antibacterial effect only on some of these strains, even against the same species. In addition, the antibacterial strength of the bacteriophage varies depending on the target strain. Therefore, in order to effectively control a specific bacterium, it is necessary to collect a variety of useful phages. Therefore, in order to develop an effective phage utilization method for controlling Aeromonas hydrophila, it is necessary to obtain a plurality of phages that exhibit antibacterial effects against Aeromonas hydrophila. In addition, it is necessary to screen out phages superior to other phages in terms of antibacterial intensity and spectrum from the obtained phages.
Disclosure of Invention
Technical problem
Accordingly, the present inventors have made an effort to develop a composition suitable for preventing or treating a disease caused by Aeromonas hydrophila using bacteriophage that is isolated from nature and can kill Aeromonas hydrophila, and have further made an effort to set a method for preventing and treating a disease caused by Aeromonas hydrophila using the composition. As a result, the present inventors isolated phages suitable for this purpose from nature and determined genomic sequences that distinguish the isolated phages from other phages. Thereafter, the inventors of the present invention developed a composition comprising bacteriophage as an active ingredient, and determined that the composition can be effectively used for the prevention and treatment of diseases caused by aeromonas hydrophila, thereby forming the present invention.
Accordingly, it is an object of the present invention to provide a bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) of the Myoviridae family, which is isolated from the natural world, has the ability to kill Aeromonas hydrophila, and has a genome represented by SEQ ID NO: 1.
It is another object of the present invention to provide a composition suitable for the prevention and treatment of diseases caused by Aeromonas hydrophila, which comprises, as an active ingredient, an isolated bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP), the isolated bacteriophage Aer-HYP-3 infecting Aeromonas hydrophila, thereby killing the Aeromonas hydrophila.
It is still another object of the present invention to provide a method for preventing and treating diseases caused by Aeromonas hydrophila using a composition suitable for preventing and treating diseases caused by Aeromonas hydrophila, which comprises, as an active ingredient, an isolated bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP), the isolated bacteriophage Aer-HYP-3 infecting Aeromonas hydrophila, thereby killing the Aeromonas hydrophila.
It is still another object of the present invention to provide a medicated bath agent (maceration agent) for preventing and treating diseases caused by Aeromonas hydrophila using the above-described composition.
It is still another object of the present invention to provide a feed additive for preventing and treating diseases caused by Aeromonas hydrophila to act on breeding by using the above-described composition.
Technical solution
The present invention provides a bacteriophage Aer-HYP-3 (accession No: KCTC 13479BP) of Myoviridae, which is isolated from the natural world, has the ability to specifically kill Aeromonas hydrophila, and has a genome represented by SEQ ID NO:1, and a method for preventing and treating diseases caused by Aeromonas hydrophila using a composition comprising the bacteriophage as an active ingredient.
The present inventors isolated the phage Aer-HYP-3 and deposited it at the Korean type culture Collection of the Korean institute for bioscience and Biotechnology (accession No: KCTC 13479BP) on 7/2.2018.
The present invention also provides a medicated bath agent and a feed additive suitable for preventing and treating diseases caused by Aeromonas hydrophila, which contain bacteriophage Aer-HYP-3 as an active ingredient.
Since the bacteriophage Aer-HYP-3 contained in the composition of the present invention is effective in killing Aeromonas hydrophila, it is effective in preventing (preventing infection) and treating (treating infection) diseases caused by Aeromonas hydrophila. Therefore, the composition of the present invention can be used for the prevention and treatment of diseases caused by Aeromonas hydrophila.
The term "prevention" as used herein refers to (i) prevention of infection by Aeromonas hydrophila and (ii) inhibition of the development of a disease caused by infection by Aeromonas hydrophila.
The term "treatment" as used herein refers to (i) inhibition of a disease caused by Aeromonas hydrophila and (ii) alleviation of the pathological condition of a disease caused by Aeromonas hydrophila.
The term "isolation" as used herein refers to an act of isolating a bacteriophage from the natural world by using various experimental techniques and taking a characteristic that can distinguish the bacteriophage of the present invention from other bacteriophages, and further includes an act of propagating the bacteriophage of the present invention using a biotechnology to make the bacteriophage industrially applicable.
The pharmaceutically acceptable carrier included in the composition of the present invention is generally used for preparing a pharmaceutical preparation, and examples thereof include: lactose, glucose, sucrose, sorbitol, mannitol, starch, acacia gum, calcium phosphate, alginate, gelatin, calcium silicate, microcrystalline cellulose, polyvinylpyrrolidone, cellulose, water, syrup, methyl cellulose, methyl hydroxybenzoate, propyl hydroxybenzoate, talc, magnesium stearate, and mineral oil, but are not limited thereto. In addition to the above ingredients, the compositions of the present invention may also include lubricating agents, wetting agents, sweetening agents, flavoring agents, emulsifying agents, suspending agents and preserving agents.
The composition of the invention contains bacteriophage Aer-HYP-3 as an active ingredient, 1 × 101pfu/ml to 1 × 1030pfu/ml or 1 × 101pfu/g to 1 × 1030Concentration of pfu/g, preferably at 1 × 104pfu/ml to 1 × 1015pfu/ml or 1 × 104pfu/g to 1 × 1015The concentration of pfu/g comprises the bacteriophage Aer-HYP-3.
The compositions of the present invention may be formulated according to methods that can be readily practiced by those skilled in the art using pharmaceutically acceptable carriers and/or excipients to prepare the compositions in unit dosage form or to add the compositions to multi-dose containers. Here, the formulation may be provided in the form of a solution, a suspension, or an emulsion in an oil or aqueous medium, or in the form of an extract, a powder, a granule, a tablet, or a capsule, and may further contain a dispersing agent or a stabilizer.
The composition of the present invention may be provided in the form of a medicated bath agent or a feed additive according to its use purpose, but is not limited thereto. To enhance its effectiveness, phages having antibacterial activity against other bacterial species may also be included in the compositions of the invention. In addition, other types of bacteriophages having antibacterial activity against Aeromonas hydrophila may also be included in the compositions of the invention. These phages may be appropriately combined to maximize the antibacterial effect of the composition, because the antibacterial activity of these phages against Aeromonas hydrophila may vary depending on the antibacterial intensity or antibacterial spectrum.
Advantageous effects
According to the present invention, the method for preventing and treating diseases caused by Aeromonas hydrophila using a composition comprising bacteriophage Aer-HYP-3 as an active ingredient may have an advantage of having very high specificity to Aeromonas hydrophila, as compared to conventional methods based on existing antibiotics. This means that the composition can be used for the prevention and treatment of diseases caused by Aeromonas hydrophila without affecting other useful commensal bacteria and with less side effects due to its use. Generally, when antibiotics are used, symbiotic bacteria are also damaged, eventually reducing the immunity of animals, and thus, the use of antibiotics causes various side effects. Meanwhile, for each of the phages exhibiting antibacterial activity against the same bacterial species, the antibacterial effect of the phages differs because of the difference in antibacterial intensity or antibacterial spectrum [ i.e., the range in which the phages exhibit antibacterial activity against various strains belonging to the same bacterial species, because the phages usually exhibit antibacterial activity against some strains belonging to the same bacterial species, that is, the sensitivity of different strains to the phages varies even though they belong to the same bacterial species ]. Therefore, the present invention can provide different antibacterial activity against Aeromonas hydrophila from that of other phages acting on Aeromonas hydrophila, which will make a great difference in effectiveness when used in the industrial field.
Drawings
FIG. 1 shows an electron micrograph of bacteriophage Aer-HYP-3.
FIG. 2 shows the results of an experiment on the ability of the bacteriophage Aer-HYP-3 to kill Aeromonas hydrophila. Based on the center line of the plate medium, the left side shows the results obtained using only the buffer not containing bacteriophage Aer-HYP-3, and the right side shows the results obtained using the solution containing bacteriophage Aer-HYP-3, and the clean zone observed on the right side is a plaque formed due to the decomposition of the test target bacteria by the action of bacteriophage Aer-HYP-3.
Detailed Description
The present invention will be better understood by the following examples, which are set forth merely to illustrate the invention and should not be construed as limiting the scope of the invention.
Example 1: isolation of phage capable of killing Aeromonas hydrophila
A sample collected from nature is used to isolate phages capable of killing aeromonas hydrophila. Here, the Aeromonas hydrophila strain used for phage isolation has been previously isolated by the inventors of the present invention and identified as Aeromonas hydrophila.
The process of isolating the phage is described in detail below. The collected sample was added to a TSB (tryptic Soy Broth) medium (casein digest, 17 g/L; Soy digest, 3 g/L; glucose, 2.5 g/L; NaCl, 5 g/L; dipotassium hydrogenphosphate, 2.5g/L) inoculated with Aeromonas hydrophila at a ratio of 1/1,000, followed by shaking culture at 25 ℃ for 3 to 4 hours. After completion of the culture, centrifugation was performed at 8,000rpm for 20 minutes, and the supernatant was recovered. The recovered supernatant was inoculated with Aeromonas hydrophila at a rate of 1/1,000, and then cultured with shaking at 25 ℃ for 3 to 4 hours. When phages were included in the sample, the above procedure was repeated 5 times in total to sufficiently increase the number of phages (titer). After repeating this process 5 times, the culture solution was centrifuged at 8,000rpm for 20 minutes. After centrifugation, the recovered supernatant was filtered using a 0.45 μm filter. The filtrate thus obtained was used in a typical spot assay to examine whether phages capable of killing aeromonas hydrophila were included therein.
The spot measurement was performed as follows. At 1/1,000TSB medium was inoculated with Aeromonas hydrophila at a rate, and then cultured overnight with shaking at 25 ℃. 3ml (OD) to be prepared as described above6001.5) was dispersed in TSA (tryptic soy agar: casein digest, 15 g/L; 5g/L of soybean digestive juice; NaCl, 5 g/L; agar, 15g/L) plates. The plate was placed on a clean bench for approximately 30 minutes to dry the dispersed solution. After drying, 10. mu.l of the filtrate prepared as described above was spotted on a plate on which Aeromonas hydrophila was dispersed, and then left to stand for about 30 minutes for drying. After drying, the spotted plate was incubated at 25 ℃ for 1 day for static culture, and then examined for formation of a clear zone at the position where the filtrate was dropped. If the filtrate produced a clean zone, it was judged that phages capable of killing Aeromonas hydrophila were included. By the above examination, a filtrate containing phages having the ability to kill Aeromonas hydrophila can be obtained.
Pure phage were isolated from the filtrate that was confirmed to have phage capable of killing aeromonas hydrophila. A typical plaque assay was used to isolate pure phage. Specifically, the plaque formed during the plaque assay was recovered using a sterile pipette tip, added to the culture solution of Aeromonas hydrophila, and then cultured at 25 ℃ for 4 to 5 hours. Thereafter, centrifugation was performed at 8,000rpm for 20 minutes to obtain a supernatant. To the thus-obtained supernatant was added a culture solution of Aeromonas hydrophila at a volume ratio of 1/50, and then, the culture was carried out at 25 ℃ for 4 to 5 hours. To increase the number of phages, the above procedure was repeated at least 5 times, after which centrifugation was carried out at 8,000rpm for 20 minutes to provide the final supernatant. The thus obtained supernatant was used to perform plaque assay again. Usually, the isolation of pure phage cannot be accomplished by a single iteration of a process, and therefore, the above process is repeated using the plaques formed above. After at least 5 repetitions, a solution containing pure phage was obtained. The process of isolating pure phage is typically repeated until the plaques produced become similar to each other in both size and morphology. In addition, electron microscopy was used to confirm the final isolation of pure phage. The above procedure was repeated until the isolation of pure phage was confirmed by electron microscopy. Electron microscopy was performed in a typical manner. Briefly, a solution containing pure phage was loaded onto a copper mesh, then negatively stained with 2% uranyl acetate and allowed to dry. Then, the morphology thereof was observed using a transmission electron microscope. An electron micrograph of the isolated pure phage is shown in figure 1. Based on its morphological characteristics, it was confirmed that the novel phages isolated as above were phages of the family Myoviridae.
The solution containing the pure phage confirmed as above was subjected to the following purification treatment. To the solution containing pure phage, a culture solution of hygrophilous bacteria was added in a volume ratio of 1/50 based on the total volume of the solution, and then, cultured for 4 to 5 hours. Thereafter, centrifugation was performed at 8,000rpm for 20 minutes to obtain a supernatant. This process was repeated 5 times in total to obtain a solution containing a sufficient number of phages. The supernatant from the last centrifugation was filtered using a 0.45 μm filter and then subjected to a typical polyethylene glycol (PEG) precipitation treatment. Specifically, to 100ml of the filtrate, PEG and NaCl were added in accordance with 10% PEG 8000/0.5M NaCl, and they were left to stand at 4 ℃ for 2 to 3 hours, and then, centrifuged at 8,000rpm for 30 minutes to provide a phage precipitate. The phage pellet thus obtained was suspended in 5ml of a buffer (10mM Tris-HCl, 10mM MgSO)40.1% gelatin, pH 8.0). The resulting material may be referred to as a phage suspension or phage solution.
The phage purified as described above was collected, designated as phage Aer-HYP-3, and then deposited at 7.2.2018 in Korean institute of bioscience and biotechnology in Korean type culture Collection (accession No: KCTC 13479 BP).
Example 2: isolation and sequence analysis of the genome of phage Aer-HYP-3
The genome of the phage Aer-HYP-3 was isolated as follows. The genome was isolated from the phage suspension obtained using the same method as described in example 1. First, in order to eliminate DNA and RNA of Aeromonas hydrophila included in the suspension, 200U of DNase I and 200U of RNase A were added to 10ml of phage suspension, which was then left to stand at 37 ℃ for 30 minutes. After leaving it for 30 minutes, 500. mu.l of 0.5M ethylenediaminetetraacetic acid (EDTA) was added thereto in order to inactivate the activities of DNase I and RNase A, and the resulting mixture was left to stand for 10 minutes. Further, the resulting mixture was allowed to stand at 65 ℃ for another 10 minutes, and then 100. mu.l of proteinase K (20mg/ml) was added thereto to destroy the outer wall of the phage, followed by reaction at 70 ℃ for 20 minutes. Thereafter, 500. mu.l of 10% Sodium Dodecyl Sulfate (SDS) was added thereto, and then the reaction was allowed to occur at 65 ℃ for 1 hour. After the reaction was carried out for 1 hour, 10ml of a mixed solution of phenol, chloroform and isoamyl alcohol was added to the obtained reaction solution, and the mixed solution was mixed at a composition ratio of 25: 24: 1 and then thoroughly mixed. Then, the resulting mixture was centrifuged at 13,000rpm for 15 minutes to separate layers. Among the separated layers, the upper layer was selected, to which isopropanol was added at a volume ratio of 1.5, and which was centrifuged at 13,000rpm for 10 minutes to precipitate the genome. The precipitate was recovered, washed by adding 70% ethanol, and centrifuged at 13,000rpm for 10 minutes. The washed precipitate was recovered, dried in vacuo and then dissolved in 100. mu.l of water. This process is repeated to obtain a sufficient amount of genome of the bacteriophage Aer-HYP-3.
The genome thus obtained was subjected to next-generation sequencing analysis using an Illumina Mi-Seq sequencer of Macrogen corporation, and then information on the sequence of the genome of the bacteriophage Aer-HYP-3 was obtained. The final analyzed genome of phage Aer-HYP-3 was 54,451bp in size, and the entire genomic sequence was represented by SEQ ID NO: 1.
The homology (similarity) of the phage Aer-HYP-3 genome sequence obtained as above with previously reported phage genome sequences was investigated using BLAST on the web. Based on the results of the BLAST survey, the genomic sequence of phage Aer-HYP-3 was identified as having relatively high homology (query range/identity: 93%/97%) to the sequence of Aeromonas phage pAh6-C (GenBank accession number KJ 858521.1). However, the number of Open Reading Frames (ORFs) of the phage Aer-HYP-3 genome was 75, while we found that Aeromonas phage pAh6-C had 86 open reading frames, based on which these two phages were also evaluated to be different.
Therefore, the following conclusions can be drawn: the bacteriophage Aer-HYP-3 is a novel bacteriophage distinct from previously reported bacteriophages. Furthermore, since the antibacterial intensity and antibacterial spectrum of a bacteriophage generally vary according to the type of bacteriophage, it is considered that the bacteriophage Aer-HYP-3 may provide an antibacterial activity different from that of any other bacteriophage previously reported.
Example 3: evaluation of the ability of the phage Aer-HYP-3 to kill Aeromonas hydrophila
The ability of the isolated phage Aer-HYP-3 to kill Aeromonas hydrophila was evaluated. To evaluate the killing power, the formation of denuded zones was observed using a spot assay in the same manner as described in example 1. A total of 15 strains isolated by the present inventors and identified as aeromonas hydrophila were used as aeromonas hydrophila strains for evaluation of killing ability. The phage Aer-HYP-3 has the capability of killing 13 strains in 15 aeromonas hydrophila strains in total, and achieves the experimental aim. Representative experimental results are shown in fig. 2. Also, the ability of the phage Aer-HYP-3 to kill Edwardsiella tarda, Vibrio anguillarum, Vibrio piscicola, lactococcus garvieae, Streptococcus paracasei, Streptococcus iniae and Aeromonas salmonicida was evaluated. As a result, phage Aer-HYP-3 does not have the ability to kill these microorganisms.
Therefore, the following conclusions can be drawn: the bacteriophage Aer-HYP-3 has a strong ability to kill Aeromonas hydrophila and exhibits antibacterial effects on many strains of Aeromonas hydrophila, indicating that the bacteriophage Aer-HYP-3 can be used as an active ingredient of a composition for preventing and treating diseases caused by Aeromonas hydrophila.
Example 4: experiment for preventing Aeromonas hydrophila infection Using bacteriophage Aer-HYP-3
To a medium containing 9ml of TSBTo the test tube (2), 100. mu.l of 1 × 108pfu/ml phage Aer-HYP-3 solution. To another tube containing 9ml of TSB medium, only the same amount of TSB medium was additionally added. Then, a culture solution of Aeromonas hydrophila was added to each tube so that the absorbance at 600nm reached approximately 0.5. After addition of Aeromonas hydrophila, the test tube was transferred to an incubator at 25 ℃ and then subjected to shaking culture, during which the growth of Aeromonas hydrophila was observed. As shown in table 1 below, it was observed: in the test tube to which the phage Aer-HYP-3 solution was added, the growth of Aeromonas hydrophila was inhibited, whereas in the test tube to which the phage solution was not added, the growth of Aeromonas hydrophila was not inhibited.
[ Table 1]
Growth inhibition of Aeromonas hydrophila
The above results show that: the phage Aer-HYP-3 of the invention not only inhibits the growth of aeromonas hydrophila, but also has the capability of killing aeromonas hydrophila. Therefore, the following conclusions are drawn: the bacteriophage Aer-HYP-3 may be used as an active ingredient of a composition for preventing diseases caused by Aeromonas hydrophila.
Example 5: animal test for preventing diseases caused by Aeromonas hydrophila using bacteriophage Aer-HYP-3
Two total groups of rainbow trout, twenty each (average body weight: 22.8 g; average body length: 14.9cm), were separately prepared and cultured in a water tank, and the experiment was conducted for 14 days, the environment around the water tank was controlled and the temperature in the laboratory where the water tank was located was kept constant, and the rainbow trout in the experimental groups (given phage) were provided with a feed containing 1 × 10 in a typical feeding manner throughout the test period from the start of the experiment8pfu/g phage Aer-HYP-3 feed. For comparison, rainbow trout in the control group (not given phage) was provided with a phase in the same rearing mannerFeed containing the same components but not including bacteriophage Aer-HYP-3, and 2 days from the seventh day after the start of experiment, 1 × 10 was added to the feed8cfu/g of Aeromonas hydrophila, twice daily feed, resulting in infection with Aeromonas hydrophila. From the ninth day after the start of the experiment, all test animals were examined daily for furunculosis. Furunculosis is assessed by measuring the size of ulcers on the body surface. The size of the ulcer on the body surface was measured according to the usual Ulcer Size (US) score (normal (no ulcer): 0; small ulcer (ulcer size: less than 0.5 cm): 1; large ulcer (ulcer size: 0.5cm or more: 2)). The results are shown in table 2 below.
[ Table 2]
Measurement of ulcer size on body surface (average)
From the above results, it was confirmed that the phage Aer-HYP-3 of the present invention is very effective in preventing diseases caused by Aeromonas hydrophila.
Example 6: use of bacteriophage Aer-HYP-3 for the treatment of diseases caused by Aeromonas hydrophila
Separately preparing and culturing a total of two groups of rainbow trout in water tanks, each group consisting of forty fish (average body weight: 23.2 g; average body length: 15.4cm), carrying out 14-day experiments, controlling the environment around the water tanks and maintaining the temperature in the laboratory where the water tanks are located constant, and continuing for 3 days from the fifth day after the start of the experiments, twice a day was provided with 1 × 10 stain every typical feeding manner8cfu/g Aeromonas hydrophila feed. From the last day of the process of providing the feed contaminated with Aeromonas hydrophila, clinical symptoms of furunculosis in the rainbow trout of the subjects were observed in both water tanks simultaneously. From the second day after the rearing with the feed contaminated with Aeromonas hydrophila (the first day after the start of the experiment)Eight days later), rainbow trout in the experimental group (given phage) were provided with a feed containing phage Aer-HYP-3(1 × 10) in a typical feeding manner8pfu/g) feed. For comparison, rainbow trout in the control group (not given phage) were provided with feed having the same composition but not including phage Aer-HYP-3 in the same feeding manner. All test animals were examined daily for furunculosis from the second day after 3 days of forced infection with Aeromonas hydrophila (from the eighth day after the start of the experiment). As shown in example 5, furunculosis caused by aeromonas hydrophila was evaluated by measuring the size of ulcer on the body surface. The results are shown in table 3 below.
[ Table 3]
Measurement of ulcer size on body surface (average)
From the above results, it was confirmed that the bacteriophage Aer-HYP-3 of the present invention is very effective in treating diseases caused by Aeromonas hydrophila.
Example 7: preparation of feed additive and feed
The phage Aer-HYP-3 solution was used to prepare a feed supplement containing an amount of 1 × 10 per gram of feed supplement8pfu phage Aer-HYP-3. The feed additive was prepared in the following manner: maltodextrin (50%, w/v) was added to the phage solution, which was then lyophilized and finally pulverized into a fine powder. In the above preparation process, the drying treatment may be drying under reduced pressure, drying by heating or drying at room temperature. To prepare a control for comparison, a phage solution was not used, but a buffer (10mM Tris-HCl, 10mM MgSO. RTM.) for preparing a phage solution was used40.1% gelatin, pH 8.0) to prepare a feed additive containing no phage.
One of the two feed additives thus prepared was mixed with wet pellets mainly for raw fish at a weight ratio of 250, respectively, to obtain two final feeds.
Example 8: preparing medicated bath agent
The preparation method of medicated bath agent is as follows. The phage Aer-HYP-3 solution was used to prepare a medicated bath containing an amount of 1 × 10 per ml of medicated bath8pfu phage Aer-HYP-3. In the method of preparing the medicated bath, the phage Aer-HYP-3 solution was added such that the buffer used to prepare the phage solution contained an amount of 1 × 10 per ml of buffer8pfu phage Aer-HYP-3, and mixed well. To prepare a control for comparison, the buffer used for preparing the phage solution was used as it is as a medicated bath agent containing no phage.
The thus prepared two kinds of medicated baths were diluted with water at a volume ratio of 1,000 to obtain final medicated baths.
Example 9: confirming the feeding effect of rainbow trout
The feed and medicated bath prepared in example 7 and example 8 were used to evaluate the improvement of rainbow trout farming as a result of farming. In particular, this assessment focuses on mortality. A total of 200 rainbow trout were divided into two groups, each group consisting of 100 rainbow trout (group A: raised with feed and group B: treated with medicated bath) and the experiment was performed for four weeks. Each group was subdivided into subgroups each including 50 rainbow trouts, and the subgroups were classified into a subgroup to which phage ae-HYP-3 was applied (subgroup-r) and a subgroup to which phage was not applied (subgroup-r). In this experiment, the rainbow trout of interest was rainbow trout of 5 weeks of age (average body weight: 23.2 g; average body length: 15.4cm), and the rainbow trout in the experimental subgroup were bred in separate water tanks placed at spaced intervals from each other. The subgroups are sorted and named as shown in table 4.
[ Table 4]
Subgroup classification and expression in rainbow trout feeding experiments
In the case of providing the feed, the feed prepared in example 7 was provided in a typical feeding manner as classified in table 4. The treatment with the medicated bath agent was performed according to the following typical treatment pattern: the fish were immersed in a diluted solution of the medicated bath as classified in table 4 using the medicated bath prepared as described in example 8. The results are shown in table 5 below.
[ Table 5]
Mortality in rainbow trout rearing experiments
Group of
Dead rainbow trout/experimental rainbow trout (number)
Mortality (%)
A-①
4/50
8.0
A-②
10/50
20.0
B-①
6/50
12.0
B-②
17/50
34.0
The above results show that: the provision of the feed prepared according to the present invention and the treatment using the medicated bath prepared according to the present invention is effective in reducing mortality of rainbow trout breeding. Therefore, the following conclusions are drawn: the composition of the present invention is effective when used for rearing rainbow trout.
While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it will be understood by those skilled in the art that the detailed description is of preferred embodiments only, and that the scope of the present invention is not limited thereto. Accordingly, the scope of the invention should be determined by the appended claims and their equivalents.
The name of the depository institution: KCTC
The preservation number is as follows: KCTC 13479BP
The registration date: 20180207
International recognition of microbial preservation for patent procedures under the Budapest treaty
Issued according to rule 7.1
Receipt of original deposit
International watch
Name of depositor: lntron biotechnology limited address: 137Sagimakgol-ro, Joongwon-gu, Seongnam-si, Gyeonggi-do, Republic of Korea (zip code 13202)
Sequence listing
<110>iNtRON Biotechnology, Co. Ltd.
<120> novel aeromonas hydrophila phage Aer-HYP-3 and its use in inhibiting growth of aeromonas hydrophila bacteria
<130>KP090559
<160>1
<170>SIPOSequenceListing 1.0
<210>1
<211>54451
<212>DNA
<213>Bacteriophage Aer-HYP-3
<220>
<221>misc_feature
<222>(13443)..(13443)
<223>n is a, c, g, or t
<400>1
catcatcctg aaccagacca ctccggaagg tcaggaaacc gtacgtatcc gtgagaccct 60
gccgctgcag ttcctgccgg ttcagctcca cggtttggtg tacgaagttc cgggtcgtgg 120
ccgcttcggt ggtctggaag tgacctaccc gcgcgccatc gacatctggt acggcctgta 180
ataccccgta actgagggct ccggccctct aatttggaga agataatgca agttcaaaac 240
actactgatc actacatctc tttcgttgct cgtaccaatc ctggtgccaa gaccaaaggc 300
tacgacccac gtggtaatga aatcatgcgt gacgagctgc cgcagctgcg tactgtgacc 360
atccctggtg gtgccactgt cgaagttgac gatgcactct ggaacgctgc taccagcggc 420
aagcctgcca cccgtcaagg tatcgagatg gaaaaggtgc cggtacaact gggttccgac 480
gatccgtcca aggaagccaa gtaccacgtc ctgaaccccg tgggtgacgg caaggtggtg 540
cacttcaatc cggtcatgga gctggtgcga gccggtgatc tgaagatcgt agagcacgcc 600
aagtctgaac tgactctgga agatctgcgg aaggcagttg aactcgctca aggctacgcc 660
ctgcccaagg aagtagacga agagaaactg cagcacatgt acaacgtgct ctgtaagtaa 720
ggacaatcaa tgctcaccta cgattcgtgg ctggacaagt tcccgcagtt cgtagctgtc 780
tctgagcctc aatgggcaga gctccagctc gaagcaaccg tagaaatggg cgccgatgtc 840
tttcgttgga atggccaaga tgcgtacgat attgcccaag gctatctgat ggcgcatctt 900
gctgctcaag cagaatcgaa cgaggcgggg gaccacaccc cgctccaacc gttccgcgag 960
aaagaagttg atgatgtgcg agtcgagtat gcagtgtcga gagatatgca gaataacctc 1020
gacccgtatc tggctaccag ctatggtcag cagtacatca agtggcgacg catggcattt 1080
gctggcccac gtgtgatttg aggttactat gatctcatta gcaccagctt ttggatcgca 1140
caccactact caggtgatgt tgcggttgga aattccaggc cagtacgatg gcgacaacat 1200
ctggattact ggtggttatg gtttagcctt tccaataagg gctacgccaa tcccactagg 1260
tgatccagat tacggcgact acggtaaggc tctgaagtcc gacccgtctg gcgaacggca 1320
accagctcaa atcaagattg catctcgatg gaagctgccg aacaattccc tgatggaata 1380
cggaactgag ttgtacaaga taatccggga aggtgactac cactccgcag ggttctggca 1440
ggccattggt gccacagata ccacactgca tccggtagtg ccgctggatt atccaagtga 1500
tatgatgctg atgtacggca acaagctcgt accagtgtcc cgaatcataa ggccaaggta 1560
tggaaaaagc gggtgatacc cttcgagcta tgaagctcgt ggacctcgct ctgggcaagc 1620
caaagttctc ctatgagatg aagcgcaacc agcctaagcc gaaggtcgac agctttgcag 1680
ctgtgctcct gctcgacgag cgtaatccag gccgtgacag gaacgaagtc attgagactc 1740
caactggatt tatcaaccgg acgtctggag ttcggttggt agtgtttcaa atcttgttca 1800
ccgaaggcat cccagatgtc tctcgattcg tctccagctt tatgcggcct gacgtgcagg 1860
acttcatggt agagaacgat ctcgccgtgt tgaagcacga gaaggtaacg aacaagactc 1920
tgatccttga aaccaactgg gaagtgcgcg agagcgtatt aatcgaatgc ctggtacgcc 1980
ggtcgttcga tagcgagatt ggtatcatct ccgaggtaga tgcaaatggt atctacaacg 2040
agggtgatat gacagtcccg atgcatatca atatcaagga accttgatga gcctttcaat 2100
cactaatgtt gttgacgtca acatcctgat tgccccgaaa gctaaagccc tgcaaagctt 2160
cggcaagctg gtattcgtca ccgacgaaag cccgaaggtg cccctcgctg gtaccatctt 2220
ctcctactct ggcatcgaag ccgtagcaga tgaatgggaa ctgacctctg aggtctacaa 2280
gggtgctacc actttctacg gccagaaccc gagcggttccttcatggtcg cgctggcagc 2340
tgctgctact ccggctgttc tgaccggcgg ctccgccgat ctggcagaca tccaggccat 2400
caccgctggt ggctttacca ttcacgtgaa tggcatggct cagaacatca ctgatgttga 2460
cttctccggc gcgtccacac tgaccgctgc cgctgccatc ctggaaggcg agctgactgg 2520
cgttgacgtg accgtgtctg gcaccagctt cgtgctgacc acccagacca tcggtaccgg 2580
tgcgtccatc tctgtggcca ctgccgacat atccggcact gccgccgcac tggcgctgac 2640
caccctgacc ggtgctgtcg tgactgctgc cgttgtgccg gagtctcctg tggaggcact 2700
gaccaaggcc gccgacactg atccgtcctt ctacggcatc gtgctgaaca agaagtggcg 2760
cgacaccgcc caggccattg acaccgccga gtatgctcag gcgtcccgcc gtgtgttctt 2820
caacacctcc aacgaccctg ccactctgga caagaccagc gaagacagca tcgcgtacaa 2880
actgaaaggc atgtccattc agcgcgtgct gactcactac agctccaagc ccaacgagta 2940
cccgtcctgt gcggttgctg gtcgtgcttt cctggtgaac ttcgaaggca ccaacaccac 3000
cattaccctg aacctcaagg tgatgaaggg cgttaccttc gagaagctgc gtcagaccga 3060
gcatgaagca atgcaggcga acaactgcaa cgccatcgtt gacctggccg gtgcattcgt 3120
atactccgac tcccgcatgg gcgacggtac ctggttcgat gctgttcacg gtgtggactg 3180
gctgcagaac cgtatcgaga ccggtatctt caatcggatg tacaccactc cgaccaagat 3240
cccgtatacc gataccggtg tcaccatcat catcgccgag atcgagcagg ccctgcgtca 3300
agcagtgacc aacggtctgg ttgctccggg caataccacc tctggtgagt acctcccgct 3360
gggttacaag atcgtgtaca ttccgactgc acaagtgtct caagccgaca agtccaaccg 3420
tgtctacaaa ggtatcacct ttgaagccgt tggtgccggt gcgatgcaca aggtagtagt 3480
tggtggctcc ttcaacgaat aaggataacg atgaaacagt atagctttta caacgtcgat 3540
cttctggtcg acggtatcct catggaaggc ttctccgact ctgccgcaat catcaccgcg 3600
tctcgtgacg caccgcaaca cggtaaggtg atggatgcgc gtgggaagat ggttgcgatt 3660
acctcagctg acaagtctgg taccgtaacc ttcgacctgc tgcaagtctc tgattccaac 3720
cagtggctgc aggttcgtgc catgcagacc cacgacgccg gtacttccgg tggcactgac 3780
gtcttcctgc cggtgcagct gatgatgaac gataagatgg gtcgcgctgt cgtgaccggt 3840
gttaacggca tcatcaccat gcagcctggt atcgttcgtg gtaccggtgt agcgaccgac 3900
acctgggtta tgcagttcga gcaactgtgg atcctgcgcg gtcagtccga gaacgtcggc 3960
gtctaaccaa catacggagt aaccaatggc ttgtaaagac atgaatcggg ttatcgatga 4020
taatccgatc tatgttcgtc aatggccggc atctgtagcg ttggagaatt taagtgaggc 4080
gttggggctt atgggccccg acttctcttt cttcgtcgac ggatcctacc aattcacgga 4140
catgctgcaa gtgctgcacc gcagcgattc caagcggctc gttgcactgc tgaagaagtt 4200
tgctatggcc gctcgtgtag acggtaaaga gctgcaagaa gcgcagttca accagtacta 4260
cagcggggag atcttcaaga tcttcaaggt attcgccttc gtagcagaag ttaactaccg 4320
agattttttc gagctagggg tacctccagc agagccagac cagcaggaag agcaggacga 4380
gtcgcaagac ccgcagccgc cagcgccgag cttgacccct tagaagaaaa gccgaagacg 4440
ctcgaagagc tgtttcctga ggttgacttc tacttgtatc ggggtgtaat ttgccatccg 4500
cctatgtgct caatgagtga tctgtcggat ggatcattat ctctgtatga cctccatatc 4560
atgcacgaga taatggacct gaaacaagaa ctgaaacaag gagacaaaga tggctaagcg 4620
cccaaccctt tcgattcccc gcaaggcgaa gcacaaaggg cagatgcaga atccgatcaa 4680
tgactttaaa gctgcaaaga gtagtcactc ttatgctgct gcccagtttg acattccaca 4740
aaagccggtg tcaaaaccgc tgcagcgtaa gagtgcctca ttctgggatg atggagaagg 4800
agaggactat gttgagcgca ctatggggcg acccactgag tccatccact ctgaagagta 4860
catcgcacaa gcaactacgc cggaacaaat cctggcgagt cgtatcaacg cggctggccc 4920
tgatgtagca tcggcattca tgtcgcatgt tgccaaggct aagtccctgg ggtcggtaga 4980
ccatacgggc ttcgcgatga gctccaatcc agctgagagg ctgcaataca tggcagggca 5040
aggaggcatc aacctccaga aagtagcatc agctatgcgg cacagggaca agcagtgggg 5100
atcacctgct gcggagggtt cccacgagga agacttctct gtacgtatgg ttgaggctgc 5160
gaagaccaga gcctaccaag gcctgcaaag cccgacacaa cgcgccatgt caatcgtagg 5220
cgcgatgacc accagtgacc agtcctggaa gcagcaagtt gatgctccag atctgataac 5280
ccctgacacc cacgacaagt gggtagaccc tctacagaag gctgtcaacg cggttcagtt 5340
catagctggt gcgtatattg atccgaacaa gctggaaggt ggtgagttcg gacctgccta 5400
cgccgatcta catgggcgcc ttactaaggt gctctcaagg caaatacctg cacggatagc 5460
gaacactggc ttcgagcaag ccacgcgtgg tgctggtagt aagcctgtag gttggaccca 5520
agccttgccg tctgtacagg acgtccgtaa gatgctgccc gtgtctgacc ggatgttcct 5580
caccaacaag ctggataagc tgtgggagga gaagaatggt cgacatgagt caccgttcac 5640
agacgcgatc aagaccatcc gagacgtgta ccgttctggt aacgagggtg gtctgtccaa 5700
gccgaagaac ttcgagtacc gtgagcggca atatctcctt gacgagatgg ctgcatccgg 5760
acttgtagac ccaacccaga ccgtcatttc ccagaaccct ggacgagacg agatgtatga 5820
cttcaaggtc actaccgatg gtggtgagct gatgaactct gcattgcaag cgctgggtgc 5880
aactgccgct gacctcgttg gtgaccctgt catccgggct caagtaaagc gtgctgctgc 5940
tgaaatagct gcaactggtt ctgcaagtac cactgggact gttggagaca acctgacacc 6000
gaaggctgcc ctgctgggta tgcgtgactt cggtggaggg cctatcccgt tccagctgga 6060
gccgtacaag aagttcgagc gtggccgtgg tggtggcgcc accaccagga agaaaaaccc 6120
tgtagcacct gctggcatca agcctggtga tgtaatccaa acagcagcag aggcccaagc 6180
agaagtacgc caacgcactg gtgaccctga cggagccaga gcaaagtatt tcgcagagcg 6240
gccgtggttg aaagccatcg catcggatga tgacaaatca gacccgatgt cggcatggca 6300
gcgcaatcgt cgtggcaaag tgacctcatc cgccgcaggt gccttggcag acccagagtc 6360
tgcaagagga gctttgcatg cagtggtgaa gggggcgctg accaatccca acgacccagt 6420
gtctattggc cgaggctcta tctggactaa gtccggtgat gccctcgaac cagtggcact 6480
ggactggtac cgtaagcacg tcgaccctga tgcctttgaa cctggtctta tctttaaccg 6540
gaacaaggct ggacaggcaa ctactcctga tgctattgct gatggtggtc gccgtaacgt 6600
agaagtgaag tctcgcaaca aattcattga ccccaacaac ccgttggatg ctaatgaagc 6660
gaagactctg cggaagaact acttgcagat gcagcaccag atgtacctca ccggtgcgtc 6720
cagtactgac cttgtcgaga tcctcaggga ccaagagaac cccaatgccc ctctgggcaa 6780
gaacggcctc aacgacaaca acatccgtaa gcgccgtgta gaccgtgatg acgagctcat 6840
ccggcagatg cggccgcaat gggaaacggc aggaaaggca gctgacaaga tcgcaggcct 6900
gaatgaccgt acccagaaga tgttcgccaa agcagtggaa gaaggtaaca ttcagtcctt 6960
cgagaagctg tccaaacgtc acgggattga aggccatgaa gcactcgcag caacgctcgg 7020
gctggcggaa ggcaagggta gtggcggtgg tggcggcggt ggagacaatt ctcgaccgta 7080
ccgtggaaac tacggcgggt tcggcggtcg tgatgctcct actactcttc ggggtggtgt 7140
gcgtggtggc ttagctgcca tgggtcgacc tggtaagatg ctcaacgtag ctcttgctgg 7200
tgctgaaatc ctctgggaca cagcgaacga catcaacgac acaggcctga atctatctgc 7260
gcaagcacgt gcaactggca tgcgtgaaga cttgttccgt aagacacgac tgagtatgac 7320
ccaaggtaaa taccttgatg atgcctcagc aatgtcggac atgtcatcta tcgcgcttgc 7380
caagggaggc ctggaacagg gtttcactga ccgtgctgta aacttggtca ccagtactcg 7440
tggtgccatt actctaggtg acttgcagaa tacaaacctg caagacccgg atgccatcag 7500
aaacctgatg agtcagacag aaagccgtct tcgccgccga ggcgtaagtg aattcggcat 7560
cgcagctact atggaacagt cagggctgaa gtccttactg agtgccactg atgctgctgg 7620
tggtcgtgag tcgttgaaca acgcagtcac gaacatcaat gacaatattc tggaactgaa 7680
gctgacagcc ggtgattacc tggggcagat tgcaggattc ggggaagagt acttcaaggc 7740
catgagctca gcattgcagg acattgctgg ggtgctagcc ccaaatgctg gtggtggtgg 7800
agctcttgtc gaaggacgag ttcctatgtc aacgaccaga gacggtgtca ttggccctgc 7860
catccagtca gccattgatt cagtgactga cttcgccttg cctacaaggg caggtgaact 7920
ggccgacgag atctcattgt tctctggtat gaacggcacg ctacctgagg ctaacagggc 7980
ggcactcgag aagcaattcc gaggcatctc tgcatctcag cgcaacaggg taatggatgc 8040
aatccgcaac gactccttgg ataccaatca actggccaag gacgttcgtg gtggtggcaa 8100
gctagaagtg gagctcaaga ctgatggtat ctctctgact gtgaaagacc agtccggacg 8160
tatcacttcg aaggctttca aaccttatca aggcggagcg gaataacatg ttcggtcgca 8220
ttatgcggtt ggaggcgagg cgggagctca cggcagaccc gttcttcgtc acagacaagc 8280
tgcgcattaa ctgcgaaatc gaaatgtcgt tggcgcagca actggcccaa gccagtatca 8340
ccatctacaa cctgtcagaa gagaactcaa aagctctgac gtcaggtgac catgaggtgg 8400
cctcgaagga caatgctgag tcactgcgag tggcgtctaa agtctttatc cggctctatg 8460
ctggatacca agacgagatg ctggcgaacg gtgaactgcc attggtgata gagggtattg 8520
ttatgaacgc ctacgcgcgt cgtgcagtac cccaccacct cacgcatcta tttgtactgc 8580
cgttggcaag ctcgttcctg agacagccat tcacaccgtt ctctgtgcct cgtggaactc 8640
ccctgaggtt tgtgttggag cggatgacgt gggaggccgg ctttgaagcg gtgacgtttg 8700
atctgccgga ctccatcctg cagcaagaca tgggtggaga agctcttgag ccggaccctg 8760
acttgtacgg cacattgcac aagctaggaa aggcgtattc gtttactttc tctcaaagag 8820
caagtggcat tgggttctac ccgaggatcg acgatagcgc gcagagccac aacgagttca 8880
accatttgca ggctaacgga gaagtctaca acgtcaagcc attcttgctg aaaggcgcac 8940
ctactgttgg tgttgccacg atcagcttcc cgatggtgtt agacgccaaa gtattcccag 9000
gctgggtgat cgatgtccaa gacatctccg gcactcgagg tgacttggcg ttaccctcag 9060
gtggcttgcc tgactactct gcgcttggtg acccgttgtt ctacacggac gacgttgcca 9120
agtacgcagt gctaccacgg tacatgctaa agaaagtcat ccacaagatg gacacctacg 9180
tcgacttgtg ggagacacta gtagttggga ctgttccgac tgctggtgat tatggaaagt 9240
gggagcaaca tggctaacaa actcagagac acaatgatca tctgggagga agagcccgga 9300
tcaggcaagt ggagtgtact cgcatttgac ggtgtagttc gtgaaggtca cagtggggct 9360
gtccaggtaa ctggctatcc tgtggactca ggcttccaag tctcggacca cgccatacgt 9420
cagaaccgta tcatcacact agacaccatc acctcgaata tctcaatgtc agtagctact 9480
agccgcaaga cattcgaaga gtctttcaat gagctgatgg tggccattgg ctcagctcag 9540
acaggcggtg gtgcaccagt atatgatgct ggagaggtgt tcgacccaga gcaggagata 9600
gcttcagctg gccctgcgta ctccgagacc accaaatacg gtcgcgccgg ttacgacaac 9660
gacgctatca atatcaccat cccgtacacc agcattacac ttgggacgat taccaacccg 9720
attgcaacag cgttactctg ccaagtctct atcgacaagg tggacgaagc gctgaacaca 9780
gtcgacaggt tgaacgccct tggcaagctg gtgcatgtgg tgactctgcg tggtgttcgt 9840
aagaactgtg ttatccgcca gtacgatgca atcaacgatg tgaccaactc ctactcagtg 9900
cctatcgcgc tgacactgga gcagatgaac gtggttgacc tgactcgtag tactgtgcag 9960
gtaagtacca actacagtaa cggtgaagtg gtagctcaag agcaggccac tgtccggcga 10020
gtagtccctg aggctgcaac ggtagagaac gccatcaatc cagcggctgt acagctgttg 10080
gctgcaccgg tatctcgtgc ggttcaagct accgctatct ctgacggtga agtaccagac 10140
attgttccgg catcgttcta cgagatggaa caccgtgaag taccattctc cactgggttt 10200
gacactcggt tcatctacga gggcacagag tacacacttg gaagagtgcg gtacaacgtg 10260
actctcggtt gctttgtgac tatcctgcaa tggcggaaag acggaaagta cgagaccatt 10320
gcaagcctgc cgttgcagag cggggtgaat ctcgttaggc agtatgccac caacatgccg 10380
tcattcgtag ctgtgaatac tcaggagcgg aacagcgacc cgtcagcacc agagaacctg 10440
cgactgtata tcatcaaagg gttcgatgaa acattcttag gattgtaatg gacgtcaaga 10500
cgaagacaat tgggactatt gtgtccttcg acccagaaag ccagatggct acggtcaagc 10560
tggcaaccaa cggaaccaac agtactctcg acaccaacta cttcaaccaa gaagggttga 10620
cgctgataga cgtaccggtg gaattcccaa ggtgtggtgc gttcgtaatg acgttccctg 10680
tgaatgcggg agatgactgt atcgtagagt tctatgagtc tggaatagac cactggctct 10740
acgagaacag acgggcgtac aatgtcgtaa atggccggtc agagccagca gcacgcaggc 10800
ggtatagccg taaagacgcg tcctgccgag tggcaatcga caacctcgcc aaccctattg 10860
gtgggttcaa tacctctgga cttgaaatca ggcatcgtaa cggtaaccag aagatggtat 10920
tccatccgga tggagtgatt gaaacgatca gtccgtctga catcaagttc atagccggtg 10980
gagacatcac ctttaaggct gacggaaata tcggtcttga gggctcgaat atcgagtcca 11040
cagccacggg ttccaaccaa gtgaaaggca caagcgtaac actgaagggc caaagcatct 11100
cgatggagca ataatgccag ccgtactcac gcatgtctca aagaccagtg ggcacgatgg 11160
attccctcct acccagtcta agggcggtaa ctcgttcgta ggcattggag gtcatccggt 11220
tatactggta ggccaagaat tcgaaccgca ctctaacggt agtactcaca caccgaagct 11280
gattggcggc tcctcgttca tcaaggtgaa cggagtgcct gtcggactag tcggtgataa 11340
acttgattgt ggcgacacgg tcattgagag cgctactagt ttcttcacag caggaggctg 11400
aatgagtttc aatctcaagc tcggtgcaga ccacgatatc atcgttggga gacaggtctc 11460
gagaaccgat aaactggagt acactgtcca gcttgtcaaa tgcaggctcc ttacctttct 11520
tggtgagtgg gccttgaacc gaggaattgg tgtgccttgg actggagtac tggacaggtc 11580
ttacgacatc tccgcgacga agttcgcaat ccagaacact atccagacca ccgtgggtgt 11640
taagtcactc aattctttat ctctgaaagc ggacccaaca acgcgtctgt tgactgtaga 11700
attcacggcg acgtcgatct acggtgaaat tagcgcagga gtaacggtat gaccggtatt 11760
accgaagctg gaatcacggt caagacttat gacgagtgcg ttcgcagtct cgaacaaaga 11820
ttcaagctgg agtttggcga ctcgttcgac acgactccgg aaagccctga tggccagaac 11880
atcaggataa tggcagcatt catctacgat cagtggctgc tggccgagca agcgtaccac 11940
agttacaacc cgtccgtagt gaccggtact ggactggaca accttgttcg gctgaatggc 12000
ctgactcgta tcgtcgatac tccgactcgt gtcggtgtgt acttcgatgc tactactagt 12060
gctggtgagg ttctccctgctggtactgtg gtagagaccg ccactgacaa aattcaattc 12120
gttaccactc gcagcatcat cctgcctggc gaagtgatcg cgtcgtgcct taccaaaggc 12180
gccatcacga tcttcccagg tgaggtcacg gtgattgcag acgatgtagc ttcagacatc 12240
actgtaacca accctgctgc tggtataact ggcgtagtac gtgagacaga cccgcagctt 12300
cgtgcgagac gggaacgatc actggtacgc gcagggacag cgactgctga ggcaatctac 12360
tcagccgtaa ctgacctgaa cctaagcttt attgcagtgc tggagaatga tactgatgct 12420
gttgttgatg gtattcctcc tcacgcattc aggacggtgg tcgagggtgg tgcgctggaa 12480
gacgttgctg agcgggtcta tcggaacaaa gcgataggca tccaagccta cggggacgtg 12540
aacattgaga tcactgactc cagaggctat cctcacatga tcggcttgtc ccgccccaac 12600
caagtaccca tctgggtaaa ggtgaaggtg aagcgaccga gcaacgttgc catcaacagc 12660
ctgcgtgaca tccgtgacgc catggtggaa cacatcaacg gcctgcaaat cgctacggac 12720
gttgaatggg gcaaactgta cgcgccagcc accaatgctg ctccagcagt gaacgtcaag 12780
ctcatcgagg tgagtaccga cggcgtgacg tacgtacagc aggacatcct gatggggcct 12840
gtcgacaaag ccaaaaccga cgagatcaag gtggtggtcg aggagttgcc atgagcactg 12900
taatcgcagc accgctgacg aagcttatgg acctgctgct gatgcagtac aggaactccc 12960
cgaacttcat caagtacctc tcttgttact ccgctgagct gcaagaggta tacgcgtgtc 13020
tacaacagga aatcactgac cgttactacg atgtagccgt tggtgctcag ttggacgtca 13080
tcggggatat cgttggggca ggcagaacgc tagaaggcgt gtcggtagct ggcaacttcg 13140
gctaccttga ctctgctgaa agtcttggta tgggtcgtga agacaacccg aatatcgggg 13200
gtcctttccg ctctgaggaa gacgacaccg tccaagacat caggctcaat gacgagcttt 13260
tccgcaactg gattgaggct cgaatcatca agaatcgtac cggatgcaat actgaagata 13320
ccatcgcgtt cttcacgctg ctcctgaacg acgacgagct tgacgtagag atcacaactc 13380
cagctccagc aacaacgaaa gtgagtctca agaagaccct cacaatctac gaggcagcgc 13440
aantcagaag tctcgcgcag catatcaagc ccgtaggtgt gactttcatc gttgaagact 13500
tcactggtgt cattgagaca ctgccaattg caagggtggc gtaatgacgt tgagaccggt 13560
gctcacgaaa ctgtgggcag aagacgcact cccagagaat ctcggcgacg ctggcagtta 13620
cattccggca aacccgagtt accccgatca gcagccgaac cagtatgctg taggctggac 13680
tgtgaaccac ccagtggtga agcagccgca ccattggatg aactcttggt tgtactcaac 13740
cgactggcag ctgatggagt ggtacaagtc gaatttcagc tggcaacaag agatcacgta 13800
cgttcaaggt gctgtgatta ttgttgacgg agttcggtat gtggcccaaa gcagcaacac 13860
caacaaggca cctctggcac atccagctat ctggttcccg gcaaagttcc atactatgct 13920
gcaagcccag gcagactacg cggcagtagc cctcaaggtg aataaccacg taggcgacaa 13980
tgacaacccg catggggaga cttacgagtc tttcaacggg atgtctcggg ctgacatcga 14040
cgcggcagta caggcacaag acacactggc acagaaccac atcagccgca tggataaccc 14100
gcatgggctg actccggcgg atgtgaatgt actcgacaaa gacatcggtg gcacattcac 14160
cggccaggtg gctatgacgc gaatagacgt cagtggtggt ggtatccgac ggctttccca 14220
aggattcgag atattcttgg atgctggtgc aaggctgggt attgacacca ctaagatgat 14280
ggcacagaaa gatgggcagg aaatgctctc tgatacgaac tacgcagctt ttcgcttgcg 14340
gaattccgat ctgttcaagc caccattgcc agaccttgac atgcctcttg gagccggatt 14400
gaatgcgtac tctgcgccgc agggctgtgt ggtggactat acgtctactc agacaatcag 14460
ctacaccaac aagtcagggc tcgcagccac agcagcaatc gacgaacctg ggttcagtaa 14520
atatggactc caaattcgtg cagcagcagg gcaaatcctg aacccgtcca acatgcctac 14580
tggtatggta gggacagtgt tcgcaatcgt agatgatgtg cctactgttg gtattggtat 14640
gctggataaa agcaacttgc tggaatactt cagccttgca ctgtctatca gggatctcaa 14700
ggtatgggca tttgctttaa caccatatca aatctcagca cttggagtgt aacagatggc 14760
aacaagacct acacttgcgc gaatttgggc gcttagcggg gcacgaaaag accctgggag 14820
tctgaaatac agtaccggct ggattgggga aataccgacc tttgaggtac tgaacttcca 14880
gatgaaccgg attgacactg cgctgctggc cttcgccgag cgtggtgtac ctgaatgggg 14940
cccggacatc gagtacgtac taggtgctca agcatttgcg tccgacggca agatctacgt 15000
gtctaaggtg gcggcgccta gcagggcact gtcaccgcag aacaacctga ctgagtggga 15060
ggaatcctca gcgcagttca ccatggcaca acacgcggcc atggtagcca agttcgatgc 15120
gcacatcgct cgaatggaca accctcatgg ggttactgct gctcaggctg gtacgtacac 15180
ccaggcccag atcaacgaca agatcgcggt ggtaaaccag aagatcacct cgcacacgtc 15240
agacatgggc aacccacacg gcactactgc gtcacagatt ggcgctgtac cgatcactgg 15300
tggcacatac actgggcccg tggtctttgc gaatgcggag accaagatca acccaggtgc 15360
aggtgaccat gctgtatttg ccgacgcaac tgccgtggga ctcaggtaca acacgatcaa 15420
gatcggtatc gagaagagct ctggtcgggc attcatgcag aacggcgcaa gtaagcaata 15480
cctgctgaac gagccagagt acgttgagct gcggaagacg gtagagaaga actacgcagt 15540
gccgactcca gacctggaac tggacttgct gagtgacatt cacatcaagc aaggaatggg 15600
tttctcggac tttgtgcgtg actccagtcg gacttacacg gacaaatctg gcatactgcg 15660
gacagcagct gccggaatgc caaggcatga acagcaaggt ctgctcatcg aagccaacta 15720
tcgtgagtac ctgtcgattg acgcgccgaa taacttcgcg ggcttcgtag attctacgat 15780
gctgattgaa gggatcatcc gggaattccc gccaggtatc tcaaccatcc tgcagaccga 15840
cagttcaggg cgagacgact tcgtatacgt gtcttccgct ggagtggcaa ctttccgtat 15900
tactgactct ggtggtcaag tgcggaactt tgttatcggc aatatccaag ctggtaaact 15960
gttccgtatt gtggtagtcc tgaccgccac acgatacgcc acgtacctcg atggggtagc 16020
gggtgcagct ggggcaatct cgttcgcacc gacactggag tacagctctg tgcgagtagg 16080
cgggacggca atcaacccca cagcctggtg gtgccgcaag ttctcggtat gggcacgtgc 16140
tctgacgccg gaacaaatca cgactcttta aggagcttaa atgaagggat attccttcag 16200
cgagttggta aagctcgcag aatcgatggt gccgcttaac ggcgggacca tgacaggtaa 16260
cctgacggct ccgaagttct tcatgtctgc tgcacaggat atggcagcta atgctgctgt 16320
acggaaggac tacctggagt cggtgcttga tggctcaggc tacaagaccg taacgatcac 16380
agccacgcat actgtgacac ctggccaata catcccgatt actatccgaa gtctcggagc 16440
tcagggtggt gagatcggga tttcgacggc tactggtggt agcgccagtc cgatgaactg 16500
caacacgttc gttggtaaag tgttcgctgg tggctggtca gaacaaggct cgtgggtgtc 16560
tggaatcttc aacatctact cagtgtctga gcgagccatc gctggcttct ccgctggtgc 16620
tgagatctca ggtgccttcg cggcgtacat cgagtctcag gcgttccctg tgaagattcg 16680
tgtacctcgc gacgcagtgg tcgattacaa cggaggtgct gttactatcg gcacatctac 16740
cttccccgta cgtacagggc cgaactacgt agcaggtacc aagacagttg agctgattga 16800
cttcaacaaa ggatctgggt attacgatag ccagccgtat ctgggccgta gcgtgaacgc 16860
cttgtacggc aacttcgatg atttgaagat cactgctgca cagggtactg ctgctgaatc 16920
tgctgtacgt agagactacc ttctatcctc gttgagcacc aagttcgaca agacaggcgg 16980
gactatcacc ggaagtgtag tatcgcaagg cagcatcgaa gccgcgagct acatgcagat 17040
ccggggtgcc tctaacccga tgttggaaat gcaccagcca ggtaactcag caatcctgat 17100
ctacaagcag accaacacaa cgaacatcag attcggacaa ggtaacgggg cggggggcga 17160
ggcaaaaggg tatgcgtcgc tcggtaactc aggttttgaa ttgctagtgg ggaacctgaa 17220
gacctactat aacaacgatc ggggatggac cgacattggc acagcgatgc tgtacggtaa 17280
cgaggtgcaa gtaagcgaag gatcgctgcg aggcttcctg agtcaacggc agacgttctc 17340
tggctaccac tcgattgagt acggttatgg agcactctcc tctgcgaacc cagaatctgg 17400
ggccaatgtg ttctgggcca ctgacggtgg tacatggaca aggcaatggt tcttgtacaa 17460
taatgggatg ttgcggccgc ctacttcagc tggatggtat atcaacccga acggtgactt 17520
atactcacca agacttggca ccacggttgt ggactgggcc gccgccaacc tgtcggctgt 17580
aaaccatacc cacctggcgc agattgcgaa ctacaacatc gtgcaagggc agcacagcgt 17640
gatcgggtcg tacatctttg cagcgttgaa cccagcccag aacgcgtcgt cctgcaaccc 17700
aggcagcaca gtggcaggcg cccacctgta ccctgcagct tgcgcggaat ggagtcagaa 17760
cagagcttgg aacttccaag gctcctggat gtgtatgggt tttgtagacc cgaacaccga 17820
taaccgttgg gatgaccgtg ccaccctgtg gttccgagtt gcttaaggag caataatgca 17880
agaggaagaa gaaaaggtag aattgcctgt aggtgaagct atccacaaac acgaagggca 17940
gcagatctgc gtgctggaag tgaaagacct ggagtgggct aaccacgaac actcctcggt 18000
caatctcctg gtgcgcttca gccactggcc ggagcacttc ctgccgtaca cgctgaacaa 18060
gtacgactcc actgagcacg gccaagaact ctacgcagca tttattgctg gtaagcttgg 18120
cgagcctgct aagtgcactg caccgacccc ggagcagcaa gctgagatga tgttcccagc 18180
ctacaagaag tcgcagcaag acaagctgga gcgtagaatc gcgccgctgg ctcgggctgt 18240
agctattggt attgccactg aagaagagac cgagcagctc aaagagctcg aaatcaaatc 18300
cgtgaagatg atgcgtgcag tcagtatgca ggacgaagta ttccagtgag gtagtaatgg 18360
aagaacttaa gttcagccag atgcagcttg cagacccact tgcgggtagc gagatggtgc 18420
caattctgca aagcggcgtc aacaagctta ttccagcaga ggtcctgaaa ggtcagaacg 18480
gcaaggacgg tgcagatggc aaggatggca ccaacggcat cgacggcaga gacggtgttg 18540
atggtaccaa cggtactaac ggagttgacg gtgatcaagg ccctccgggg cctcctggaa 18600
cacccgcgcc gatcgtagat gactattacc tggacattta cgattgggct ggcgaccagg 18660
ctatcgctga cggcgcattc ctgaactttg ccagcctgcc actggtgaag aaagcgggca 18720
gcactgccgg aactactatt gccgccaatg cagtaaagtt ccctaccaag aacaaaccgt 18780
catccgtagt gtttgtgctg cgaattaccg gcaccatcgg tggctctacc tcccaagcaa 18840
gggaatggcg tatccaaatg cgccgtcctg acgggacagt tgttggttct gtcgccgact 18900
taaagatcac cggcacaact attgtcaatc gtgatgtcac tatcactagc cacacttggg 18960
acgcgaacga cccgttctcg gtgacaggta tccagctggg cttgcacaac gtgtcaaccc 19020
aggcgatgac tatcacggcg ctcagtatcc gtgtgcatcg caacgtcaat ccggagtgat 19080
catgacaatt actgaatgga tggagaactt tgcagctgcc gtagcatctc gacagtacaa 19140
catctacaac acccagacca tcaaggcact gaaacaagct gccgatagcc tgtctgctga 19200
agaatttgtc gtcaaggcaa agcagctgtt cctcccgtac gagcaaagta acatcacctg 19260
ctcgtccctc accggccact accacccgca ctccgcgaga gcactgtggt tgactctgga 19320
caccatcgaa atccctgtag cagggcgtat ggtctccgaa gacggtgcgc cgctgataag 19380
cgaagatgag aagcaactgg tagcagaagg caacacacct taggataacc tatgactacc 19440
ccagttgctg tcggagaagt tgttgcacgg agtgccacct tagagaaggg cggtctcttt 19500
gtagtacttc tcgtagtcct gtatatgggc tacaacatct ttcaaaccac cagtgagtct 19560
gacaagaacg agcaaaagct tattctcact caactcacta ccatcgccca acagcagatc 19620
actatgcagc agtccctgac taacactcag gcgtccgtcc aggctagcca ggatgcaacc 19680
cgtgatgtac tgcgcaagat ggaacaaatc gaaagcacca tgcttcgcta cgtttattac 19740
aacgacgcga acggcacctt ggtcatacga actccagatg ctgttggtgg ttctgaaatc 19800
aagctgaaaa ccgaaccgaa aggagcacga taatgccgct gctgaaagca atcctctggc 19860
cgatcctcaa aaccgtcggc accaaccttc tcatcaacct gatgtctgag ggcatcaagg 19920
agctcgagaa gcgccccaac tcctctgcta ccaaagaaga cgtcaaagtc gtcgaaggta 19980
tcaagaagct ggtgaagtga tatgagccag tctcgccctc acttcaaaga gtctgagtgg 20040
aactgcaagt gtaccacctg taacaaggcg gtgccgcaca agatggacca ggcagtaatg 20100
gataaggtgg agcagctccg agtcctggct ggtcgtcctc tgagcctgtc ctccgcgtat 20160
cgctgcgcca agcacccttc cgaagcaaag aaggcaactc ctggtcagca taacaagggt 20220
ttggcagttg acgtggccgt cgctgacggt gctcaacgca tgcagatcat caagctcggt 20280
ctcgaactcg gtgccaccgg tattggcgta gcaaactcgt ttgtgcacct tgactggcgg 20340
aaatccacac ctgtcgtttg gacttattcc taagtctttt cgatagaaat tgtaacaaaa 20400
tgacccagaa atgggtcgtt ttctaaggaa atcaatgcaa aagtacatga aactcctggg 20460
aatcttgatg cttttgcata tatttcctca gaaagcgatg gcttcgaaag gccatcatta 20520
tgacaacact cggtgttacg cccaggcggc ctaccacgaa gcccgttcca ttgacagaac 20580
ggccatgagg cttgtccaga gcgttgtata caacagagtg aagatgaagg gataccctag 20640
ggatgcctgt ggcgtggtat ggcagagagc ccaattctcg tggactctgc gccatccgca 20700
ctcaatcggt gccctgccga cagccctacc gcccgctgac ggggcggctc tcaaagaggc 20760
actctccctg gcccgctctc tgcgcgccgg tgactggcgt ccctccataa cggcagacca 20820
tttcttgtcg ccagacgcgc tctctggggc caagacgggc aggccgcgat tcccagcgtg 20880
ggcgcggtgc ccagcggggc agcctgaccg ctgtatgtca taccaggggc taaagctcct 20940
agcgccggac ttcacatatc gtggtatctg gttttatact atcaactaag agataacgca 21000
aatgaaagaa caagtagtct acatcgtgat gtatgaagat aatggccaga agtatgttgg 21060
caatccgtac ctcaatccta tcgatgcaaa tgaagaagca gaagagcgcc gccaagtact 21120
gaagaatgca ggagcatctt gggtagtaca gcgcaagatg cggagtcaag aatgcagtta 21180
ggatcggtcg acctcgtcag agggagatag atagccttat taagattcta ttattgagta 21240
accaatgaga ttcttaataa gttagttaat aagattcttc gtgagtcact aatgcgaaga 21300
atgcgaagaa gaattccagt cgaccttggt ggagtaactt agtggcacag acgtagattc 21360
cttatgagaa aaaatttttg gacccatggt acctttatgg aaattatgac gaaaaaattt 21420
tttggccaag aatagggtgg gggaaggatg ttgttgaatc ttgacttgat gggacccgtt 21480
cccgacttga ttccaacgta cttctatcat actcaataag gaatactact atgtctatca 21540
tcaccatgaa caacactgct gctgccacct tcactgacac catggttgaa gagcttgaga 21600
tggttctcat ctccatgctt gactctggta ctatcactga agagcaagct atgaccctca 21660
atgagtgtcg tgatcttcgt tcactgcgta tcaatgctct gaacatgggt cttggtgaag 21720
agattgtcca tgttgttaag gtaatcactg gtgagtatgt caaccagcct ttggttgatg 21780
gtgctaatgt tgatatcagt gagttcttta agtgtaatac ccctgaggag gctaaagcac 21840
tccaatcttg ggctagtgtg tttgatgttg ttatccctac taccatgtca gttgtcgagg 21900
agaaacctat gaagaccgcc aaagacgtaa gccgtgagtt caaagccatc gtggaagctc 21960
gtgatgccat cgaatccagt cagattcgct tggatgacat tgagctcaag agtgccggct 22020
ctatcgctac tgctctcgtt catgcattgg agaaggatgg gttctatacc cagtacttgc 22080
cgctggatga gaatggtcag cagactgata gtcactatca ctttgaggcc aaggcaccga 22140
acttcgacaa tcgttctgtt gctctgcttg ctgtccagct cgctggtgtt ctgccgtaca 22200
ttgacgaaga atacgacttc gaccatgttg tgcaaacagc tgtgttccgt cgtcgcttcc 22260
gtgacattgc tcgtgctaac actttcatcc ctggcgctta ccacaatatg atggatgctg 22320
ctggtactac tcactggcat gagaagctgt ccaagggttt ggagctagct atcaaggctg 22380
gtctgctgga agagcgttgc gaagatggta tcacctacat caagcacact aagaagtaca 22440
ttggttcttg catctctcgc actagcgtga tgcatcagtc tgaagccatc accactgaaa 22500
ctcgtcgcaa agagcgtgtc aaaggtcgct ctaatgctcg caaggatggc acttctaagg 22560
aagttcgtga ggcactggaa ttcatcgagt cccaagctca atgtgttaac cgttggttgc 22620
tggatgcaat caatggcctg attggttact gcactactaa caatctggct gtgccttctg 22680
tgttcaatga atctcgtcat gtgattcatg gctccaacga gctggctaat gttgctgagt 22740
tgttctctga gtacttccat gaccttcgtg gtcgtatgta ccagtttgct cactgtggtc 22800
ctaacccgca agcatctgat atggctaagg cattgtgcta ccacactgtt gttaaccctg 22860
ttgctaaggg tagtgagcag tatcacatgt tcctgaacga aatgttcggt gaagtgatcg 22920
gtgatgctga tagtgtgtgg gccactgagg cttacattcg tcgtactgct gaagagcctg 22980
tcaaagctct ggtacatgca ttcaatacca acaatggtga gcttccgttc aagaagttct 23040
tctcctacat ggacatgtgc cgtacttggg tgagcttcga agacactggt atgggcgaga 23100
gccgtcttgg ctttggtcct gatgctaagt gctctggtgc tcaaatcttc tcaatccttg 23160
ctggttgtaa gaccatggca gaagcatgtg gcctcatcac tggctatgag cagaagcctg 23220
ctgacccgta caacatgtca gctcaggaag ttaacaacat cactcgtact atgattgacg 23280
ctggtcttat cccgactcgc acaatcactc gtaatgagat taagactccg ttcatggcca 23340
tccaatatgg tggtggtgtt ccgtcactgc gcttcaagaa gttcgagcct actatggaag 23400
ctcttggtat cgccagtgat cgtcgtaatg agttctgcca agatgttgtt atcgagggta 23460
tcaacaatgc aatgggtcca gtcattggct cgttcattga agttcttcgt aagtctgctg 23520
aggcctactg cgaagagcac aatgttgatt acttcgagca tcgtcacatt gatggcttcc 23580
tgtgcaccaa gaagggtgaa gctcaagtcc gtatgacttc tgagccgttc atcatcaact 23640
atggtgctga tggtaagggt gttatctttg gtagcaaaga gaaggctact ggttggttgg 23700
tagagtctcg tacttctggc atcctccagc gtcgtaactt ctgctactac ttcccggtac 23760
acttcatcca aggcctggat gctgtgatgg cacgtaagat tgctcttggt gctaagaaag 23820
ctggtcttcg tggttactcc actatccatg accagttccg tgtatgtctg gaagatgctc 23880
ctcgtcttcg tagtgaggtt gttcctcagg tatacgttga catgttcatc aacaatgacc 23940
ctgtaactca tctggccaac cagatgggca ttgagatgaa gtggggtaac ccgctcaagc 24000
aacgtgtgca ggtgctgact gaagaaatcc tgttcagcaa ggatgcctat tacttcgaat 24060
aatcgaacaa gggaatagtc tgttggtaac tcgaagccat tagcaatagt ggcttctatg 24120
gtactagcag cgctcgctta gagccactct taccattgat atgaagtagt gcccaccgtt 24180
gccacagcaa ccacacctct agatgcttcg ccacgggagc ctctcaaaga gaagaccagg 24240
ctctagcgag ccacaagacg ctagcaatcg gctctacgag ccaaaagctt ctgacgatag 24300
ctctgtcgag ccacaagtca ctagcgacct tccattgata tcctcagcgt atagttggtg 24360
gatgcaaggg ttattgctat agtctattgc caatataata actaaccacc ataaccatgg 24420
ttacggccct ggcgggccaa aagaagatga ggcattggta ggctaaccga tgtatacgca 24480
caggcccaac cacccaacga agcagcaacc gtgtaggttc acttctacgg gttagtaagt 24540
cacggcgtct cctcatcgaa actagggcat cgtacccgtg taatgaagac aatgaagact 24600
tgtatgatgt gctgttccac ctacggaaca atcaccgtgg aacgtgagat actaccgtag 24660
agcacatatt tctcctgatt cttattaagg ccgtgtcggc ccaagggtca cgataaatat 24720
tatcatcatt tcaagaatcc ttgcatagca atactacttg tatagatggt atgactgtgt 24780
agagaagaat aatcgtatga gacgtagtat gagacgtccg tatgatgtgc gagtcgaaga 24840
ctcttagtaa gtacacccac agtatgagac gtaagtgggg tgtgtgtggg gacgtggaag 24900
gcaagcggaa ctcgagcgcc acaagacacc agcccctacg tcattcacag acacaggtat 24960
gatacatgta tgacctacat aggtatggtt attacgttac ttactaagag cctacggctc 25020
ccatagggct cttcgagccg aaagtctgtg ataggcatat ggctctacga gccttttgta 25080
attgatgatg ataatattat tatcattacg tatgtctatt attaattatc atgatgctaa 25140
tgtcgcttgc gatttgtagc ctaacctagc ccacaggagg aaccatggca aaggtgctaa 25200
actacgctcg agtacgtcgc atccctgagg gtgcggtata cattggtcgt ggaatgaagg 25260
atatcccaga gaatcctttg ttcaagaacc cgttcaagat gcacaacgag tcacaacgcg 25320
acttggtgtg tgaacagtac aagcaacacc tatggaagca aatacaagct ggcgttgtaa 25380
ccaaagagca cctcatggct cttgatggca aagacttagt gtgctggtgc gctccaaaag 25440
catgccatgg tgacactatc ctgaaggcca tcgagtgggc caaggtgaac atgtgagaac 25500
atcatacagt caccacgtgt acaagaacgg ctcatcgatg gtgaagtcga tatgtcacgt 25560
caccatgcaa ctgacaacgt cgttcaacag gcaagagcgc aggtggaact acaagtgggt 25620
aagaatgcga actgctaaag ttgttcgttg tgcaaagaca ggcgtagtat tatggagtta 25680
ctccgttaac cacgctatgg gaattagtat tgacgatatg ggagaatccg atgccagcta 25740
aaataagtcg tgcagacata ctgagagaca tccgtggtat ctctccagca aagctgggca 25800
agttgcgggt aatcgtggag gagcaataca cgcctcggga ctggttggcg caacgttacc 25860
aagtatccct ggtagtatac cgagggcaaa acaagaatat aattgcccgt gaaagtgatc 25920
tggtaagtcc cgcgcatgtc atccaaggct ggatgttggc ttgtggactc accgccgatg 25980
atgttgaact gaatatcccc aagtaagcaa taggaggctt tatgcccaag ttcatgagta 26040
tcaaagacat gcaacgcctt gtgaaaccag cgaagtacta ctactcgttg acaccacaag 26100
gtcgtgcgaa aatccacgct cagcgtatcg agaacgctat gatggtgcga ggtgactaac 26160
atgtgttggt tatcatttgg ttgtttggtg ttattggtag ttattattta cctttgtggt 26220
gatgataatc tctccgataa caattatcct gagagccctt gggataaata aggctcttcg 26280
agccgcaaga gtatgctcca caccgtcatt gcagtatcgg gtaccggcta tcaagccttg 26340
actgatgcgt gagtctcttc gggtggagca cccattcctt tatggagtta acaatgaaat 26400
atttacttgg tctggtaata gtactctttg cgattgcgtt agtctcggtt atattgatga 26460
ccgtggcaat tgccttcggg taccaaggca tatcgggcga acaatgggct gcggctgcaa 26520
tcctcacgtt catcctttgg atcaccggaa acatcgtagc gagtgtatgc taatggctaa 26580
atttattgca cctgagaaag gcggcttcct gtcctactac gggctgtcga agtaccaact 26640
caactccatc ctgcgtacca atggctacgt gcaggacatg cgattctact ccgacgagga 26700
taactcgttc gtgctggagc gtgcgggtaa tcccaagaca ttcgcaagac tgttctggac 26760
cagcgtaagc ggctggacac tgcacgtcaa gctggaagac gacccgctgt ggatcgtccg 26820
tagcgaatag ctaactaggt gccattcatt gagtggcatc tgtggtagtt atttctgact 26880
atcattttat tggagaactt tatgtacacc aacgaaatgc ttgaacaagt tttaacggca 26940
atgctagact ctggttcaat ccatgaggac acctgccacg ctctgctcgc tactaacacc 27000
aagatgattc cccgtcttgg caagtttgtt gagcaaggca ctctgtcaat caagactgcc 27060
aattccatca tggctggtct gcgtcagctg agggccaaca gatgagtagc cacctagttg 27120
atgtggacta ctcgcaaatc gaaagccgtc tactggcctc caatcctgag tggttcaaag 27180
accagtattt cgcgcattac agagatgatg cgaagtactc ggttaaactg cgttacgaca 27240
tgactccagc agcagatact catatcgttg actggggcca cctcatgcgc atggttcaac 27300
cgattacagc aactggcgtc aacgagcttg caagcttgaa ggccaaccag attgctcaca 27360
ccaatcagta cacgattgtg agggtccaat gacaatgata ttccgagtcg caatagtcgg 27420
cggccgtgac ttcactgaca tgactaaact gactgcatgc tgtgaccaca tgctgagcaa 27480
taaggtaaac ttaggctacc gaatagtcat aatcaatggt actgccaaag gtgctgatga 27540
actcggaggc cgatacgccg acttgcggaa ctacactcaa gagaagttta tacctgagtg 27600
ggaaaagctg ggcaagcgtg ctggcatggt aaggaacact gacatggcca accgtgcgga 27660
tgctatcata gcattctggg atggcgtgtc aaagggcact cgaaacatga tccagacctg 27720
ccaaaggctg ggtaaaccga ttcaagttta caaatactaa ggagccaaga atggctattg 27780
aagttgtaga atacgtacgt cgtgtcatcc tgcgtaacaa ggtgcgtcaa ttcaccctga 27840
accagctggc agacaatttt aagtgtggtc agttgaaggc caaggtcatc tactacgcgg 27900
tagtgactgg ctgcaactct ggcaccatta ccaagctgac catcagcaac gatgactacg 27960
ctcgtctgtg ggcgagggac cgcgacatcc tcaacgtgat caaggagctg taatcatgcg 28020
cgacctgaca tcctgggaag taatcacagt tgtgatctcc gcattcgctt tgctggtgtg 28080
gctctggttc gacctcaaga agttcctgct caagccacgg gaaattccgc agtacatgga 28140
agccaccctc ggcttctctg acgcgttcgt tccgtccaag cacaccgtgt ttgccatcct 28200
tgactggaga catggtgtgg tctcgatgtc attgaagttc gccggcctcg gcagcgccca 28260
cgacatggag atggctagct gtcatgaaca caatttcggt tacactcatc tcgcagaaca 28320
attcgtgagc aacgcgatta tgtgcagcat gagtgtagat ggtatcaatg aacagcaagc 28380
cctcgctgag gtgcgtagct ggaacatcgt agtaagctgt actggtcggg cgcacaatgt 28440
attcccgagc atcaacggcc agcatcctgc ggcactcatg caagatgcac tgcggcatgt 28500
tcgcaatggt tggagtcaat ccaatgcgag tcgtaatttt aatactgctg gctagcctgt 28560
cagcatgcca tcctatattg gccaacatgg acaaaggtga ttgcaccaag agtgcacttg 28620
ctgaactcca agaaggccac aagcggatcg ctgccggtaa aggtggcgat cttggtaaga 28680
aaatcgctaa agacgcgttc gaccgttaca tcgaagagaa gtggttgaac tgcaaaattc 28740
aggagaatca gaatgatcag tcaagagaaa ctcgccaagc tcactaacac tgctgagctg 28800
gccaagaaag tttgtgcaat cgtcaacaca ctggccgtgg gcgaagcctg ggtggccggt 28860
ggtatcgtgc gtgacctgtg ggccgcgcag accaaaggtg ttgacctcga aggcagcggc 28920
gacatcgacg tcctgctgat caactgcccc aacgacgacc tgaaccagct gggtgctttc 28980
atctctgctg ctctggacat caagggcatc aaggcgtact gctcccgtgt ggactatagc 29040
tacgaagcca cagaagatta tccggatgca gatgaccgtc tgtacggcgt gatgcagttc 29100
agcatctaca gcagcggggc agcggatgca agcaagatcg aaatggacat cctggtgtac 29160
gaagaccgtt tcgagacgtt ggaagacgtc atggacacct tcaactgcaa catcaacaag 29220
ttctggttcg atgaagaagg caacggcaac accaccttct ctccggagca gcccttccag 29280
taccgcgaag gtgaccgtga gaagaacgaa gaacgctacg agaagtgcgt gatgcgttac 29340
aacatggtgg ccaaggcagc tcacccgtac cagcgtatcg atgagcacga gggcatgacc 29400
gccgagcaag tcgacagcca attgccctgc tgaggtgtaa catgattgta cctcaaaaag 29460
ggtatgtgta cagcatctac cacagtcgtc gtggctggga gaagctgacc gtctgtgaga 29520
cgtctggaaa cactgtgaag atggtgttcg aggaagggtc gatgaaaggg actgtgcggc 29580
ggatgagcat cggctgctgg aatgaccttg tcaagggcaa tcgcctccaa gagggttgga 29640
ccagcaccac gccgactgtt gaccagaagc tggcggaaat cctgccggta gaagtccaca 29700
tcgaacattc ccatgaaaga ctggaagcaa tcgctggcat accgggcgca atccgccatg 29760
ctggtgagac ccgtgatgaa ttcctgagcc gccttgagcg aacacttaaa cctaaggaga 29820
aacccttgaa acttcgtatc gtagatatct actgttttga caccaccacc aaggacctcg 29880
acgctgccaa tcgcgtgatc gacaaaatcg aaggccacgt gaccgacaag agcgacaacg 29940
acactgttgt tgacctgctg gctgccggaa agttcgtagg cgccctgagc gcccacaacg 30000
agagagcggt tgacgaagag tcgaagcacc tcaagttctc cgacatggaa atccgtgtcg 30060
tagagcgtgc tgcggtgtaa ggctcttcga gccaaaagtt agtgctaaag tcgaagccat 30120
tcaagtagtg gcttctatcg ttatcactac aacaaaggag tgagaatgac cactagagat 30180
tttgatttca ccagtggaat gccgcccggt actaacttgc gtgtgaagtg gccagtcacc 30240
gctgcacaag taagaaccac cggtacgctc tgccattttc gttctccgca agggcacgaa 30300
ttcatgcgca tggttatcgc tagcgccggc caatacctca cgtgggtaga cggtctggag 30360
cctgaatggg ccatgccgta tgcaggtgac gacatgtggg cgactttcaa tgacgggttc 30420
ccccgtcgag tgtgacacag cctaaggaga atccaatggc gaaagattac ctttgcggtg 30480
tagcagcagg tgttgattta gccgtcaacc gtgctgtgcg ccgtgcagta acccacgaga 30540
agggcatcaa gttcatcttc cgtgactcga tgaccggcca agatcgtgag aaactcattc 30600
ccgtaactgt ggatgaatac tgcgactgga ttaatggtag cctgattcag gacgccatgc 30660
cgcatatcca ccctgatgac cgtgagttgt ttctcactgg gatggtgtgg taatgaatac 30720
ctggttcgta ctgttcatca cactgaccta cggcggcagc catgagttcc gtactccgta 30780
tcaagactac cgctcctgcg aagaggcggg ccaacaagtc tacaacatgc ggtacgtcaa 30840
ggacttcatc tgtttgccag taaagcgcta acgcgccaaa agagagtgac taagtaactc 30900
atcaactacc tgctaaggag gatgatatgt agtcactcat gttcaatcaa agggccttcg 30960
gcccacaaga aattcctgga gcaagtatgc aagctatgtc tacccaggcg agcagcatgc 31020
ctgctccgcc gattttcgcc gtcatcccgc gtgtacctta tgacgaggta tgcccgtgct 31080
gtggcactgt tgtgcatcat ggttactgtg gtgcatgtga taaaaccatt gaaggataag 31140
gacatgcatg gtgtcaatgt ctctcgcgtt ttgggctccg gtgcaattga ttttgctact 31200
gaccctctgc gtattggtgt ttgtaaaggc tccccaatgg gccgcctcat tcaccgcagt 31260
aattcccgca aaaccgtggt gcgacgtgtt cagtcgtctc ccgctcatgc gtacaactac 31320
accatcatgg gctaacccaa caggcctctg cgagcaaatc cggattcgga aacagacgtg 31380
gaaaagttga aagttagccg atggtgtagg cactacaacg ggctccggaa cactaccgga 31440
gtcctacaat tagtactctt gcgctggacg cttggagata acgctgaaag aaccaaatgc 31500
gatttggtag aataggtata atgccaagta tgataaagcg tgagagtcct aattatactg 31560
agtgggttaa aggatggcac ttgtagacag ttcgtctaga ggcccaggac aggcgctgcg 31620
cgatgcgtca aacacaggtt caactcctgt actcctatga gtgtcattgc tttaaccctc 31680
ccatcaacgc aacaaagaga atcactctat gcgtaaagaa gacaaagtag tatccctgtc 31740
caccgctact cgtgccgagc gtaagcatgc caagcacgta gcgcgtaccg aagcccgtcg 31800
tgttgccaag tgcaagccga actggcagaa ggagtggaag aaccacatgc tgcaacagcg 31860
cggcatgaac aagatcatgt ccctgatcgg tcgcggcatc gccgtacaga aggtcaagaa 31920
cgctaaggca ggtgtgtaat gagcaacgtc atcaactacg aactcgttcg cgccggtaag 31980
gtgatcttct cctccacccg taagctggac accatctatg ctcaccagaa gcaccgccgc 32040
agcgctggtg tgagctaccg tgaaaccaag gccaagtaag gtatacatat gccctattta 32100
ccgattcatc ctcgtcgtgc gctccgtgtg ggcgacgagg taattcacgt tggtgaaggc 32160
gtgacctacc ggggtcgatt gggccgcgtg gtatcagtat caggtagcaa ggccagtggc 32220
caagtgaaga tactctggga ccacaagatg caggcgctgg actacagcat aggctggtgt 32280
atcaggatgc ttggcgtgca cgtgaactgc ctgcgagtca attaccaaga cttccatggc 32340
aagacttacg tggacaagta tctgcactgg gcgttccaga agggcgacgt caccaaaggc 32400
ttcttcctga ctccgcatca cacgatgaag gccaaggaag acgcgaagct gcgtgccgaa 32460
gaacagtgcc gcgtccagtg ctgcaaagtt gacgtcacga gcgactacca gcgtggtctg 32520
atggcccaac tgaagcgcga ttggtccatc ctccagcatc ctggcctgta caagctcatc 32580
ccgactaccg atggtctcgg gtatcgagta gaggccatcc ctgccaagcc ggcacaacct 32640
gtacaggaga agcctgtgtc caacgtagta taccctgtga ttgccgagag ccgcgagaac 32700
ggtcaaatca ttcacattgc atccgagaaa gagctccaga agctcggtgt cggtagctat 32760
acgctgtact cgaagtcctg caacatcgca gttgctccgg tacagcagaa ggaaatcact 32820
ttcctgtaag cataactcga gagtcctgac cgcctttgaa cagggctctc tatggtatgt 32880
ttaccagata gttttcgtca gtaacacgcg tctgttttta tcatcaaata aatgcaaacg 32940
atgatctgat gttggctgcc gcctgataag cgaaacgcca cgaggtattc tagttcctcg 33000
ccaagcaatc tagcggagtt cctcactctg attaatacag agggcataac tcgagtgtcc 33060
tgcacgaata cagcagggca ttctctggta tgtaaccaat tcggcacttc gtgccacaag 33120
gagttgatca tgtcttacga tcgtcgtaac gaccccaacg atggaatagt gtctgccgag 33180
atgtctctgt gggacttcct cggaggacta ctcctttcat gcgtactagt attccttatt 33240
gtagggtact gcgcaaaata aactgtgtat gtcaacttgg agaaaccact atgacaacca 33300
acctgcaaac cccgaccctc cagcaccccg acctggctcc gcaacaaccg cagaccagtc 33360
agtaccctgc tgagatcgcc aatttcactc tgctcgctgc ccgtaaccgt accagtgaac 33420
gctcaccgca ctacttcgga tccttcaaga tccagggtgt ctggtaccag gtctccacct 33480
ggattgtgtt ctcgcgtagc ggtggcgagc agcaactgtc caacagcatc cgtccgtgca 33540
ctccggaaga agctgccaag catgaagctc gtgaccagca attccaagcc ggtcagcaag 33600
cacgtgctca gcagaccctg ggccaggtgc ctaatccgat gcatgctccg gccaacaccg 33660
gcacaccggc tgtggacccc aaccaccctt tctgacaaag gatcctgccg tgaacaagtc 33720
actgcgtaaa ctggcgagcc tcttcggggg ctccaatatc ccccaggctg gccgtaacgg 33780
tcggcttgac atggaccgcc atctgatcaa agagaccatc ttccgccaat gcgatgccca 33840
catcgacttg aagcggatta ctcgtggtac ctttatacac gtggtgaagg caggtttcaa 33900
atcctctgtc gtccgcctgt tcgaccatga gatcgtggtc agcaacaagt acatcaagca 33960
gtcttaagga gaagccgtgt ccaactttac ggatgaccaa gagatagtcc tcgagattat 34020
caagcagtgg ttacgcaatc aggacgcggc gtttcttgcc cgtgaagaac tcgttgtctt 34080
ctggggaccg attgatggca acttgcgtaa gcaagggtgg aataagctga agctcaacga 34140
ggctgtcagc gtaatccgaa ccacgaaagt ccctgtcggt gtgatgaaac actgcacagc 34200
tgacttgatg cgagcggctg ctcaagaaga aggtcgtgcg tatatcgctg gagtgactgt 34260
tgtagggggc gctgtgagcc cggaatactt caactttcac tctaacaagc ggtctgtatg 34320
cgagaccatc gagcaccgtg ttgccattca tctgatctgt gagcttgaag ccctggacca 34380
gaatgtcatg tggcatcagg tagcatacct gtatgagcag tgcctcaagt acatgaagct 34440
tgaggttccc aactgcatgc agcgtaacaa tttcatccgt tacggcttac aggagtccgc 34500
cttcattgag aagcgtaact ccaagcggta caacggaaga tacgtcatcc gcgagggtgg 34560
caaattgcgg caactgattt gtatcaagct gccgcataag tccggtatca aagaagactg 34620
gactaaagac gagatgaggg gcatcgtcct ccgctcggtt caaccgctgt tgaatccccc 34680
tcgtggatca cagtaatcca atggcttcgt agagaagcttttccacatca agagagatct 34740
ttcatgacta tcaagtccgt acaactgttc gttaccaccg atggcaagca attcgaagac 34800
caggctaccg ccgaagcgca ccaggtttcc ctcgacaacg ctgccgtagt tggcaaagtt 34860
gccacctcct tcgtcaacgt cgccgttgct ccgaacgcca aggttcccgg cctgaacggc 34920
cgcacccgtg tgttcaacca gaacgtcgcc agccaggttg tatccttcct gatcgcccaa 34980
ggcgtgatcg ttgctgccga cctggaagcc ttcgaggcca tcgagccgag cgaagagctg 35040
gctgcccgcc tggaagctga ccgcctcgaa gccgagaaga aggctgccga agccaaggcc 35100
aaagctccct ccaaaggtga aaccgctccg gccaccaccg gtgaagaaac caaagaagaa 35160
gtcgctgaag acctgttcta attctgatcc ggcgcgctgg catcgcggcc agtagtcatc 35220
gactacaggt aactgccaaa tctagcccct tgctgaaatg acgcgagggg ctattttttc 35280
ccaccgacca tcgagtcatt cagaatgcac tcaatggtga gtgtattccc aatgatacgg 35340
agattccaat ggctaagccc tcgactaagt atccccgtcc tgctgagatc ctgatggctc 35400
tggcggcggc taatatcgac caccggttca tcaccgtacc caatccgcag cacatcgaac 35460
aggagttggc acggctgatt cccgacccgc gtattgctct gcaagtgtct cgcctgatgc 35520
aagagaacca gaacggcttc atccaggcgc tgctgcacac cggcaaccag gccctccaag 35580
ccatgggcta ccaagagacc gacgtcacca aagacgctgg tggtgtagcc ggtcgtgagc 35640
tggttgagca agtaggacgt gctatgcacg ctgctgctga gctgaagaag gctgaagagg 35700
ctgctaaagc gcctgctgcc aaggagtaat catggctggc acttgcgtag agcggatgaa 35760
acatgatgac tcgaagtgca acagcacctc gaagtcgctc cagatattcc tcaacgatga 35820
tgataccttc tcggggttct gtttccactg tcacaagctg gtgcctaacc cctatggtga 35880
caatcctcca gacccgaaag atatccatgt caagacaccg gaagaaatcg cggaagagat 35940
tgctgaggtc aggcagtgca aaacaatgcc tctcaagcat cgcggcatcg acccagaaga 36000
ctggagttac ttcggtgtcc ggctcctcac gagcacaact gacggcacta caccgtatgc 36060
tatcgcgcat ccttatacca agaatgcaaa ggtagtaggc ttcaagatca agctgatcgc 36120
acgcaagacc atgtggaacg tgggtgacgt taaaggcgcc gacctgtatg gttgggaacg 36180
ggcgaagcgt gtaggcggtg gtgtactcta catcaccgag ggtgaagagg atgcaattgc 36240
gctccgcaaa atcctccgca tgacctccac caatagctcc tacgactacc ctgtggtgtc 36300
gttgcctgcc ggtaccaatt ctgtggccat gtgtctggga cgtatgtccg aggaaatcaa 36360
cacacgcttc aagcgtatcg tgctggtgta cgacgacgat gagcccggcc gtaaggctgt 36420
gcaagaaact cgcaagatct tcccgcatgc tgagtctgct atgctcccag agaaggacgc 36480
caacgagtgt ctgatcaagg ggcgtatcaa ggccgccaag gatgctgtag tgttccagat 36540
ggctaagccg tcacaggcgg ctatccaggt gctcagtgcc gatgacgtca tggacgagat 36600
tatgcaagac ccagagtggg gcttgtctta tccgtgggac gacctgatga agaccacgta 36660
cggccagcgg aagaaagagc tcatctccat cggcggcggt actggttgtg gtaagaccct 36720
gattggccat gagatggctg cgtggaacgc tcgtactcac gggtggcgca ccctgatgat 36780
catgatggaa gagtcaccag cagagacgtt taagaacgtc gcgggtaaga tcgacaatgt 36840
gccgtaccac atccctgtca aagatggcga agagccatac gacaaggaaa ggctgcggtc 36900
caccatcgac tacctcaagg ctttcataag cacctgggat atctcgacca ttgaagaccc 36960
cgagaccact tgggctcaaa tcactcaggt catccggact caaggccacc tgtacgactg 37020
tatcatggtg gacaatgcta caacgctgtc ggaaggtctg tcggcatcag agcgtaacga 37080
cttcctgggt aaggtgaaca acgagtttgc caagctcgcg gagaagtttg acttcgaagc 37140
aatcatgttt agccacctga atgcaccgcc gtccaaccaa cgttcccacg agaacggtgg 37200
taaggtaacg gaagcccagt tcactggctc tcgtgcagcg atgcgttact cacacatgat 37260
cttcggcttc gagcggaaca agtctgcgga agacccagac tgctcatact tcgtggtcct 37320
caagaaccgg aagttcggcc gtactggtcg cttcaagacg tactactcac aacgtactgg 37380
tcgcctgcaa cagcgcaact gggacgatga gtcgtaccaa gacaaggcta cggcaagcac 37440
caaagcctcg taaggagaat ccatgctggt agtacctgat gcgtgggaac tgattctcaa 37500
gactcagaaa gacgggtctg agaagactgt taccctgcaa aagtttgtag aagtaactgt 37560
ccctcgcaat agctactccg ctaaagcagt ggacaacctg atggctgttc gtgagcgact 37620
caagaacggc gaagaagtag atggtgccga gatcaacctg aagggagtga ccttccggag 37680
ggcaccatga ccgaccaaga attcttccga cgttctgtgc tgatgttcaa gagcacatac 37740
cctgaaatcg gggacaagac agccattgca cgcgcgcaag agctgactga cgacgtagtc 37800
gaacatgagc agaaaagcgc catggctcgc tacaaggctc cggaaaagta cgagcggatg 37860
ggcaagggca gcatcgtaaa gaaggcctgc gggttctgca tcggcaccgg tgaactgcga 37920
ggtggtagcc aatcgttcgc ctgcccgcattgcaatggta cggggaaaga gcaatgactc 37980
atcccatgta cctgctctcc gagccgaaga acatgttcgc ggcagacatt gaaaccactg 38040
gcctgctgga agacctctat acccaagagg caccgaagct ccataacttt ggtgccaagg 38100
ctatggatgg tactgagttc ctgttctccg aggcctggaa cgtcctgaac cacaaagcct 38160
gcgcggacat ccgaccgctg tcagagctcc aagcattcct ggatactggc ccttgcctca 38220
tcatgcacaa cggtatgtgc tacgatggtg aggcattgat cttcttcggg tacgacatct 38280
ctaaggttcg tattctggat acgctctacc tctcttggta ccttgagccg ctgcgtaatc 38340
gctacggcct tgccgagtac ggggaagaat ttggtatacc gaagccggtc attgacgact 38400
ggcagaacct ctcccaagaa gaatacaacc gacgggtcat gcaagactgt cggattcaac 38460
tccaactgtg gaagcgtctg cgtgctatgc tgtatcgtct ctatgatgat attgaagctg 38520
aggcatggaa ggcgctgaac cacgtgtgtg tgataaaggg ccgccatttg cggaaccaac 38580
agcgcacaaa atggaccgta aatattcctg ctgcaaaaga gctgtccgag cgactgcacg 38640
cagacaagga agaccggttc gtggagctga tcgaggttat gcctcgtaag ccagtgttca 38700
agagcaagaa gcgctgcgcc aaaccatgga agatgaacgg cgcactgtca tctcacggtg 38760
aaggctggtt gaagttctgt atgctgcacg gcatcgactt caatgacctg accgagttcg 38820
agtaccaaga cggggacgtc gagggcaacc cgaacgctcc acagcaggtc aaggactggc 38880
tgttcagtct cggctgggaa ccgcagacct tcgattacaa gaaggatgat gctggtaacg 38940
agcgagtgat accccaaatc aacgtcaaga atactggcgg ggagatggac ccaggtatcg 39000
agttgcttat cgaggaccat ccagaagttg caagactgaa gggtcttggt atcgttaagc 39060
accgtatcgg cattgttgac ggctggattc gtgacgccat tgatggcaag gtcatggcac 39120
gtgctgctgg cttcactaac actctgcgtc tcaggcacgc tgaggtggtg aacgtcccgt 39180
cagaacgggt accctacggc aaggagctgc gctctctgct gatggcgcct gatgacaacc 39240
atgagctact aggctctgac ttgtcgtcgc tggaagaccg gtgtaagcac cactaccaga 39300
tcccgtacga ccctgagtac gtgaagagcc aacaaactcg tggttacgac cctcacctgc 39360
gtatcgcacg tctgggtggt ctgtgctccg aggatgacga gaagttctac attgactaca 39420
cgcttcgtga agaggatggc ctgccaatta ccgaggaaga caccaagcgg ttcaagccgc 39480
tcaagggtat ccgaggtaag ggtaagccaa tcaactatgg atgccaatac ggccagcggc 39540
cagcaggtat atctcgtgca tctaagatgc cgattgagat ggctgagctg ctgtacaatg 39600
catactggga acttaactgg tccatcaatg cagtggcgga ctccatggag atcaagtcgt 39660
gtaacggtgt gaactggcag cggaaccctg tgtcagggat ctggtaccac ctcaagacca 39720
acaaagaccg gttctcaaca ctgtgccaag gtactggtgc gtacgcattc gacctgtggg 39780
ttgagtctat cttctgcatc tgcgaagaac gctggaagcg tgagcctctg ctgaacggcc 39840
agttccacga tgaactgatc ctgacagtca agaagggcct gcaagacctg tggcgtggtg 39900
tagtccgtga gggtatcacc agagcgaacg gcctgctgaa gatgcgtcgt gaaattgatt 39960
gcgatatcca gtttgatact gtgtacgcgg gaatccactg atgtctcgat tcgaaaagat 40020
ggtcgccggt aacaaggcga tcttcgaata ctgcgaacgt attcgacaaa tgaaccaaca 40080
agaggagaag cctaatggct ttgtttgata aagcaactga gaagtctgct ggtggtaacg 40140
gccagaagat ggaagccccg ctgctggcgc tgggtggcta ccctgccgta ctgatccgta 40200
tcgtcgacct cggcgagcag cccggctccg ctcagtaccc cgacccgtcc tacaagatgg 40260
cgctggtatt cgagtgcctg gacgagttca tggtggacga agaaggcaaa tccctgccgg 40320
acgttccgcg tgagttcgac atggaagtca gctacaacct tgacggctac atgtcgccga 40380
aggccaagct gcacggtgtc atgaccgcgc tggaaggctt cgacaagtcc ctgagcgagt 40440
tgctgggcac tgtctgcacc atcaacctga tccagaaggc caccaaggcc gacgcgacca 40500
agaagtacaa cgccatctcc ggtgttgctg cgatgcgtga gaaggacaag gaacgttacc 40560
ccggcccgtt caagctggag cagtgggtgt tcaacctaga cgccaacacc accaaggaag 40620
acttcgagaa gcagtcctct cgcggtggtc agtacagcca gcagtccaag atcaagggcg 40680
cactgtccct gcacaaagac gctccgcaac tcgcggccgc tctgggtgtg gaagctccta 40740
agatgatcga ccacggtgcc gacaagccgg taggcgaagc cggtgctgcc ttcgacgaag 40800
aagagcagaa caagcagatc gaagctgcta tgggtggcgc agcagtgcct acggaaggcg 40860
ctggtgcgga accgaacccg ttcgattaat cggagacgac atttatggca attccaacaa 40920
tgtcgaaatc cgttgtcgac gagcccgaag acggtcgcta cgactacgaa gagctcctga 40980
tcgacggtga cttgttggtg ttttcctcct gtgcggctgt tgaatacggc cgcactccgg 41040
aagaatacac tctgcaagaa atcctgacca acatcgaagg tcggatcatg gcgatgaagc 41100
gtcgcctcaa ggctcgtaaa gtacgtatct tcttcacggc ggaagacaac ttccgttaca 41160
agatcatgaa ggcgtacaag gccaaccgtg aaggcgcgtg gctgccggaa tccttgaaga 41220
atgcaaaggc ccatatcacc accatgttca atggcgagcg tgaaccaggt ctggaagcgg 41280
atgacctcat gggcatctac cagaagattg atggcaccac catcgttgca accatcgaca 41340
aggacatccc gcagattccg ggcatgcact accgctggga gacccagcac aaaggcgagg 41400
ccgtctttga ggtgtctggc tacggtactc tcgtgaaaga aatccacaac aagaagacca 41460
agatcagtgg cacgggtgct cggtttttct gttaccagct gctcatcggt gatccgactg 41520
acggcgtaat gggttgtggt aagctggaag agtcggtcta caagactggc gcgaaggctg 41580
gcgagagcta caccaagcgt tccggtgtcg gccctgtcgg tgcctacgac ctcctggagc 41640
atgcgatcac gtatcaacgc tgcatggaga tcgtcattgg tcagtacaag catacctttg 41700
gtgacgcttg ggaagaacaa cttctcgaga atggccggtg cctgtacatg acccgtaaga 41760
tcaacgacaa aggtcaattc cagctgtggc atttccgtgc cgaagagttg cctaactctt 41820
ggtacgaccc tgctactgct gctgtagtac gtttcgaagg ctagttaata tgagcgcata 41880
cggttactgc aaaagcgaga aagcttatgt cgcttggttg agatctgcac tcagacgagt 41940
gtggtcgaaa cacccagtga agctagagat gctcaagaag aatcgtgtgc gctctgttaa 42000
tccgaagaca agtcgaatgt gctttatgat cacgtgcaag acgtgtggta aagaccatcc 42060
gttgtcggat atcgaagtga accacaagaa tactgtggga actctatcac tggagaactt 42120
tggcatttat tgcgaaagac tcctgctggt agaggagaaa gacctagaac ttctgtgcaa 42180
gacctgccac gaagttgtca cctatcaaga aagatctggg atgacactcg aggaagctgc 42240
gattgagaag agagttattg ctttcttcaa caagtatcca gcaggtgaac agaagagacg 42300
gttcgaattg ggaggcatgg tgcctgccaa gaccgtcgcc gagagaagaa ttcaactgag 42360
ggagtacctt cgtgaacaag ctagaaatgc tggaactggc ggctgagaac gccagataca 42420
acaacgctgg gaagaagtgg cggaagatca gacatccgaa tcaccctgac gaccattaca 42480
caccacatct gatactgcgc atgaagcaga tggatgggtc ctggacaccg ggaatcgtgt 42540
acattaacag cgctggcgaa acattctgcc gtgctgctga caacttcgag aagttctcgg 42600
aggtgtaaga tgcatgagac cattcaaacc atgaacgcat tgcgtagcgg gatggttatg 42660
cgttatcacg cgcagccaga tgtaccgtgc cagtccaacg ccgagcacat gtggggcgtt 42720
gcagtactga tgctgaagtt ctacggcata gaaatgagcg gagaagctct tgcagcagcc 42780
ctcactcatg actgtggtga agccgatgtt ggtgacattc catcaccgac aaagtacaag 42840
attccggaaa tccgtgatct gatcaagcgg ctggaacacg agtctctcaa tgaactcggt 42900
ttcaacttcg aagctgacct ccatcagtca gagaagcaag cccttaagat ctgcgatgtg 42960
ctggaggggt tgcactacac cgcgaagcat taccacctga ctggtggtgc tcagggtggt 43020
caatgcctcc agaactgggt ggacctagcg aagacactgc cgctgacaag gccgcaacgt 43080
gacttcatct acgtgtgcct ggcaggcccg tcacgcagag tagtatcata gtagtgatca 43140
ccgacgtgtt ctaccaaggc gcagatgatg gcatcccagg ccactggtgt gctcagtact 43200
tcaaaggagg ctgggcgcag taccaccgca gcacggacta cgacgagctg gaacaatgga 43260
tcaaggagaa cgccaccaat gcggatgcct ggatttaaag tacaccaaga agtgaagaac 43320
acgttgtgga ttgctgcgat tgtggcaggc atagtgttcc actgctgggc aatggcgaac 43380
agcggagtac tactctgctg gttctaccaa gctaaactga gagaattctg atgcaacaaa 43440
gctcactgag tatctccatc cagaaagcac tccatctgca tctggaagaa gagaagaaat 43500
ccccgaagca cctcggtcac gagtacgcga tcttcgagaa gtacgatggt tggtacatgt 43560
acgttgactg tatcgacggc gtgtggcaag gtatccgctc caagacaggc cgccttctgc 43620
cctccatgca gtggtacaac aacctgctcg aacaaggccc gaagcctaat caagacctgc 43680
gcctgatctt tgaagcagtt atccctggga tgatcttcaa ggacgccaac ggccgcttca 43740
accagaccaa ggagcagctt ggtaacgtag tctgctggtg ccatgatgtg ctgtttaaga 43800
aatacccgca caccatcttc tccaagcgct acgaccgtct catctccgtg ctgaaccacc 43860
tggactatag ctggctgcgc cgtgcgccga ttctggctgt gacccgtgac gttgccgtat 43920
ggcatgagca ctacgagcgt atcatctcca ctccggacgc gtacggccaa aaaggcgaag 43980
gcgttatcgg gaagaagtgg gacgagccgt accacgaagg caagcgtgac tactccttga 44040
tgaagatcaa gtgcgagctc actctggacg ttgaggtgat cgctgtcggc cctggtgcga 44100
aaggctccaa gtacgaaggc agccttggct tcatcgtggt tcgtgagaag agcggccaga 44160
ctcaccaggt atctggtatg tcggatgctg aacgagttga gtggtggaac aatccccagc 44220
tcatcgttcg caaggttgtt gaaatccaag ccatgaagcg cttgccgaac gggtcactcc 44280
gcgaagctcg ttacaaggcc gtccgccacg acaagactct ggcagacatc gattaaggag 44340
aaccgaatgc aaagagtacc tactgtagga gtggccttca acggccctcc tggcattggc 44400
aaagacacgc tggtgaagct catcaacgag gtactgttcg acaagattcc tgtagggacg 44460
cttgccaaca tgatccgtca ggatgcagct gcgtactacg gcatcgagaa cttcttcgag 44520
ctgtcgacgg accgtgagac caaggacacc aagtgcccag gtttcagcat gacccctagg 44580
cagctgctga ttgattacag tgagaatgtg atcaagaaga atcacggcaa ggatttcttt 44640
gccaagaagt tcgccgagca gatgtctcaa gagcaacagt tcatgatgac cgaccttggc 44700
ttcgttgaag aagctgaagc gctggccgac cgtgtcgacc tgcttatcat cgtgcagctg 44760
gagcatccgg acttcgactt cagccgtgac agccgtgggt acgtgaagct gcatcgcagc 44820
aacgtattca acctgccttt cgtcgtgtct cgtggcgatg cccaatctga cgcccgtcgg 44880
attctcgaag ctatccaaca tgcttatgag gaacgactcg ggttgtaacc aatcaggagt 44940
ccgagttgga ccttagcaaa tacatgaagc ccgttgacat tcgtgtcgta gtaaaaaggg 45000
atggcagcga ggagcctttt gactcctcca aaatcgagcg ttgggcagag tatgcctgca 45060
agcagaaagt gaactggaaa ggcgtagcgg tcaacgtgat ctctcgtctc ccgtccaagg 45120
tcaccacggc tgagattcat cagtcgatga ttgactactg cctggcgcaa gaatctctgc 45180
cgtacagccg tgtggctgct cagctggtat atgctcagct gcgtaagaac atgcgccgcc 45240
acctgagggt tgatgaccgt gacgatatcg gtgacatcgc cttccaactg gcggagctgg 45300
gtctgtggac tcatgagctg tccaatctga tcactgacaa cgaagagctg gtgcagggat 45360
ggtacgacgc catataccct gcgcatctcg agtcctggca agtaatgcaa tgggcggaca 45420
aatatgcgat caagaaagac ggtattccgg ttgaaacacc gcacgtgggc gcgcttggaa 45480
ttgcaattgc aatccatgga gtcacccaag atgcgtttcg actggctcgt gccatcgtgg 45540
aaggtaagat taatctgccc acgcctgtac tcaatggctg tcgtaacgga gactttgact 45600
caatctcgtg ctcggtcatt actggcggcg acaccgttga ctccatcggt gtggcggagc 45660
accttgcgta caagatgact gccaagaagg ctggcatcgg tatcgagatg aacactcgat 45720
ctgccggtga caaggtgaaa ggcgggcgta tcaagcatct gggtaaacac ccgatttacg 45780
ctgccgtcga caagtctgtg aagatgttca cccaagtcag tcgtggtggc tctgcaacca 45840
tgaccttctc ggtgtacgac cctgagatta tgatgctgtt gaagctcaag tcacagcgta 45900
ctcctttgga tgtccgtctg gataagatgg attactcaat ggcctatgac gataacttcc 45960
tcgaagcggt cgtcaagaac actgacgtcc agaccaagag cgttgacggt ggtctcgggc 46020
cggtctaccc tgctcgggaa atcctcaagg tgttcctgca aatgcgtcag gagactggcc 46080
ggctgtactg cttcaaccac tccgaagcga accgccacac gccgttcctg gacgagattc 46140
gcctgagcaa cctctgccaa gagatctgcc tgccgactgc cccgttcacc gacatgctgg 46200
acctttacaa tccggcactg ggctacaagt ccaatggtga gattgcattc tgctctctgg 46260
ctgccatcaa cgtgtacaag gtctccgaag ctgaatatgc tgacatcgcc tatctggcgg 46320
tgaagaccgt ggacaacctc atcacgctgg cccccgctct gagtgcccca gtggccgaga 46380
aactgcaagc gcggcgttcc ctaggcatcg gcattaccgg cctggcaggc tggctaggcg 46440
agcactctct gcgatacacg gatacggcct cgattgagtc acttgcagaa cgccactact 46500
actggtgcct gagtgcctcc caacgcctcg ttctggaagg cagagcgccc gtctctggca 46560
tccgtgagga ctggctaccc atcgatacgg gccacatgac cgttgcgcct cgcatggact 46620
gggaagcact ccgtggcaga cccagacgga actctgtact ggtagcccac atgccgaccg 46680
agtccagcgc cgtgttcagt gacgccccga acggcctcta ccctgtgcgt gacgccgtca 46740
tagcgaaggc ttcgcggtac gggcttatca agtacatcgc cccagccgct tgcacagaga 46800
gagcgtggga cgtgggcaat gatgtcctag cccgtgcgta tggtgccgtt caggcatata 46860
ccgaccaggg catctctgcc gactactacg tcaccccgag caagtacccg aacgggaaag 46920
tgcccatgtc ggtgatgatc aaggagtggg ttattcaagc caaggctggc gtgaagacca 46980
tgtactattc caacaccaac gacttcaacg gcggtgcgtt ctcccagcaa gaagatggct 47040
gcgagggtgc ctgcaagctg taaggaagaa tcccatgcaa attgaattga cagtggacgg 47100
gaagtccttc aaagtagagc ccatgcaggt agaaacccaa gaggagcgat ttgactcgac 47160
tgtcaagtcg tatctgctgg ctgctgcaca gcaaatcatt cggaagtatc tgttagacca 47220
acaataccct atccggtaca accaacctga agtacgcaat ctggaaaaca ttgtggactc 47280
agcgttcctg cgcagtggcg ttcacgtcgc ttcgaccatc accagcaacg ataacgggag 47340
aaccatgaat gtcagtcttc aacgccgcta ataccggtta catcaacggc tatccgaaac 47400
tgttcctcgg cgaacagcgt ggcctgctgg acactatcaa tgtccagtac cctgagctgg 47460
aagctcttta ccaacagcag atgtcccaaa tctggaacga gttcgaagtg gacctgagcc 47520
aggatcgcat ggacatgcaa actgctgctc cgggtcttat cgacctgatg gtaaagacta 47580
tcagctggca gcacctcgcc gactcggtag ccgcgcattc catttccggt ttgctgatgc 47640
cgcatgccac caactccgag atggagagcc tcatcaacgc ttggtcgttg ttcgagacca 47700
tccacgctcg tacctacagt cacatcgtca agcagacctt cgcggatcct ggcaagatgc 47760
tggaagagac ttacgccaat atggacgtac tgactcgttc caacgtgatt gtagacgcct 47820
tccatcgtct ggaagacgcc ggtgcaaaag cagaagaggc cgatatcatt atcgctctga 47880
ctgcgttgtt cgctctggaa gagattggct tcatggcctc atttgctatc actttcggca 47940
tcgccgagaa tgcgaagaag ttcatgggta tcggccagct ggtgaagctg atttgtcgtg 48000
acgaagtcct gcacactcgg tttggcggtg cgattctcaa gatccaccag aacattccga 48060
gcacctctgc gctcatgcag aagggctggt tccgtgacga gctgaaaggt atcctggatg 48120
ctatcgtcaa ccaggagctg accttcaccg actacctctt ctctgagggt cgtgaatgca 48180
ttggcatcaa tgccgatctg gtgaagcagt acgtactgta tatggccaaa cccatgtaca 48240
tcgcgtacgg cctgaccttc gactttgatg ctccgaaaga aaatccgctg ccctacatgg 48300
accactggat tgacggtagc aaagtgcagg tagctccgca agagttacag aacggttcct 48360
accaagttgg cgccatcgtt gatgacactg acgatctgga cctggatgat ttgaacctgg 48420
gttaatcgtg gcaaaagaaa atgtcttcga gccagtagat gagttcgagg acaacttctt 48480
agtcggctgt atgctgcaga actatggcga cctgttaaag gtctccagga cgaagggtgt 48540
gttacgcacc cttccgaatc tgcgggaata cattaaagac aaccagtaca ttcgttacga 48600
atacctggtg gcgcttgaag cagagcgtga tggtcaaggc ctgactggga acgctgttct 48660
caattcactg atcactgcgc agctggctgc atttgaaagc ggtgaccaca agaacaccaa 48720
gatgtactcc gatgagatca agaagcttat cacggagggc atcaagacat ctaccgttgc 48780
tgaggcagtc caacgagcaa tcgctgggaa gccttcgctg gtagaagaaa tcctcaccag 48840
gccgttaagc gtcgaccttg acgcgatcac ggttgaggat gcaaaccgag tacgagagat 48900
cttacttgat cccaacaatg ggttcgagaa gttcagtaag tggtgctttg aaatccagat 48960
gggtttcaag tttcagatgc aggattttca ctcgattata tttgagttct gtcagaagat 49020
cgtcaatggc gaaatcgaca gaggcattgt ctgcatccca cctcgtcact cgaagactca 49080
gatactgagt atcttccttc cgctgtactc gttctgcaat aacccctcca gtcacaatat 49140
aatcacttcg tacgcggacg atgtggtggc ggagtcctcg ggttatatcc ggcagataat 49200
gctggactcg ttgttcatga agatcttccc tgctgtacgt atcgaccaga acaaacgctc 49260
ccttgagcgc tggggtacta cacggtctgg cgtaatgcac gctgtaccaa caggcggtaa 49320
gatgactggt aagggcgctg gctcactgtc accaacctat tcaggatgct tcgtggtcga 49380
cgacgcgatc aaaccgaagg acgcatactc tgcgcctgtt cggaaagaga tcaacgaccg 49440
attcgacaac accttcatgt cgcggcttgc gaacgacggt gaagtccagg acgatgacgg 49500
taatgtcgtc aagtgtccaa gaacacccat ggttatcata atgcagcgag tgcatgatga 49560
cgacctcgtg gggcacatcc ttcgtggtgg ctcctcggat aagtacacat acctgaacat 49620
tccaggtatc gtgacgcctg agtgtggtac cgagaagtgg tacgagaagc tgctgacgaa 49680
gcaagcctac actcacgcgg ttccgtacct ctacgacctg aaacgcggcg aaggtgaatc 49740
tgcgctgtgg ccaagtcgta agagcctcga ttctcttatt gcgatgagaa gcgcgactcc 49800
gtacacattc aactcccagt acatgggtga cccaactgcc agaggcacag gcctgatagt 49860
agaagactgg tggcaggaat ggacggagct tccgttagat gatatcgctc gcgcattcat 49920
gacggcagat acagcctcaa ccaagcagga ctactcagat tactccgtga tctgttattg 49980
gctcctgact aagaaaggca atctgtactt agcggatgtt gagctgggga aatacgagac 50040
accagagttg atgaaagtag tagtcgactt ctggaagaaa cacacgcaat tggatctacg 50100
gtatcctatg ctgctcccga cggcgctgta catggaagat aagtcctctg ggcaattcct 50160
gaaccagcag ttcacgagag acgggcaagt gcgtgttctc ccagttccga aagataaatc 50220
ttcgggtgat aagattgctc gattcctaaa cactgtgccg tacttcgcac agggcaggat 50280
ttatttccct gcagaacaca aacacaaagc acacataatg cgagaaatcc ttggtatgac 50340
tggggaaggt tctggtacag atcacgacga cgttgtagat aacgtgtctg acgccgtagc 50400
cgtagcattc agtgcccaga ctgctaacta tgcagcctgg atgtaaggag aagctaatgg 50460
gtatcaagac ccgcctggac caacggtctg aaggcaacaa ccgtatgatg ctggtcgatt 50520
ccgccactgg tgaaatcgta gccatcatct ccgcagtgtc caacaaagtc gagatcgaag 50580
tcgagaccgc gaagggcctg cacatcgaga agccgaacgg gttctccagc aaacgctaag 50640
gacaatcaat gtctgaacct accaatgcac tggcgaagcg tgaggaagac ttccgcgctc 50700
gtctgatgat gcatgacggt ctagagaact tcatgaccgg tctcggcact ggcaaagaca 50760
agaactcgta caacgagtgg atcaggtctg gccggaaccg tgatcatgaa caactcatcg 50820
tcaggtacag ggaagactgg gttgctcaga aagtttgcaa catcctgccg gaagacatga 50880
ctcgggagtg gcgccgatgc agtacacccg aagccatcga ggctgatgat gaattccata 50940
tcagccaact cttccgtgag gcgtacactt gggctagagt gttcggtact gctgctatta 51000
tccttgacct taagggtact ggccgtgcag agacaccgct cgacctgagc cgcctcaagc 51060
cgggatgcat cagaagtctc caggtagttg atcgtacacg gctgatgccg tcaggtacgg 51120
ttgaaatgaa cccgatggat ccggagtacg gctacccgca gcattacatg ctgggcggct 51180
ccacactgca aatccaccgg actcgtattc tgcgctttga agggactccc ctcaccagat 51240
acgagaactg gaagaaccag tggtactcag actcaaccct gatcccgctg tgtgagacca 51300
tcgacaactt ccacacggct gcgcaatccg cgtctgcctt ggttaacgaa gcaaacgtcg 51360
atgtggtcac tgtccaaggg ctgcagaatc tgttgaccaa ccctgctggc gaggctgctt 51420
tgtataagcg cttccgcatg atgaagcaga tgaagtccaa ccacaacatt ctgctgctgg 51480
acaacaccga agagtacagc cccaagacca tcgcactgaa tggcgtcaag gatctcatct 51540
gggaatactt acgtatcatt gctgctgctt gtggtgtacc tgcaacgaga ttcctctcgg 51600
cgtcgcccga tggcatgaac gcaactggcg agtcagacct caataactat attgacctgc 51660
tgcgccagaa acagaagtct gtctttgaca aacgactgcg tgtcatcgat aagattctcg 51720
ctgctcactt cggcatccag ccgttcaagt atacctggaa ctgcgcattc ccagagtcgt 51780
ccctgcagaa ggaagaacgc cggaacaaac tggccgattc attgcagaag cttgtagttg 51840
gtggcgtcat tactggcgat actgctatca agattatgga agaagagcat actttcggag 51900
acattgatct cgggaaggca ccgccacctc ctcctaaacc gtcaaatggg gaaaactcca 51960
aatgatcaaa atgtctcaac ggatcacgtt ccgagacgaa gctgagcttg agctgacccg 52020
ctttgttgat gaaggctgtg accttccaac tcagcgcaag ttcaaggata gcggtgcgat 52080
gattgctccg gcgaccattg cccgcaccgg catcatgaac tactctgctg gccactgcgg 52140
caagttgttc tccgactggc ctgcgaccaa gatcgtgcga gtgatgactc gtgccgaaga 52200
cctgttccac gccgactccc tcgaactgta ccgttctgcc ccgatcacta tcggccaccc 52260
tgacgaagac gtgtccatcg acaacgccgg ctggctgcag aagggtaacc tcgatggtat 52320
tcctttccag gatggtgagc agctcgccgg tcacgtagtg ctgacccaca aggaagctct 52380
ggacctggtg gatgctggtg taagccaact gtcctccggt cacgacgcta ccctgatccg 52440
cctgtctgac gaagatgctg cgcgactggg ctacgacgcc tacaagacca acatccgtcc 52500
gaaccacgta gccatcgttc cgaaaggccg tgccggctct gcccgcatcg ctgacgaaga 52560
cgaaggcgct ggcaagacca aggaagacga aggtcaggtc aagatgtacg accaggccca 52620
cgtgtccggt ctggaagctc agctggaagc atctgtcact ctggcagacg gcctgaaagc 52680
cgaggtgcaa gagctcaagc tcaagatcac cgacgaagcc atccaggtgt tggtcaacaa 52740
gcgtctggag ttcatgaccg aggtggctca gtttactgat gctgatatct ccggcatgtc 52800
cgagctggat gcgaagaaga ttgctatcaa ggatgcctgt ggtaaagact acagcgaccg 52860
tgacgagcac ttcatcaacg cccgctacag cattctcctg gaagaaggca ccgaatccgg 52920
tggcaccgat atctcccagg ccttccgtga tcacattaag gatccggaaa tcaaagcgaa 52980
gtccgagcct acgcagagcg aatccgcccg ccagcgtatg atcgaccgtc aatccaagta 53040
atcgaggaca caacatgccc gttcaagaat atcacatcaa tacccgtgac gaagtcgaag 53100
gtcaactcta cggcctgcaa cagactcgtg ccgacatcca gactggtttt gccgaagatg 53160
tcagcggcat cccgttcggt aaggccgtta aagtcggtgc tggcccgcgt ggcttcctgc 53220
tgggtgccgc tggcgctcac gtagacggca tcgtcctgcg tcagatcgac cgtgaagctg 53280
ccaagcgccc gtccgacggc accgtagtct tccgcaaggg cgactccctg ccggtgtgct 53340
ccgatggccg tgtggtcgtc aaggtgatgg acgctggtgc catcgttcgt ggtcagaagg 53400
tattcgtgca tcaagccaac ggtaccttcc acgtagctac tggtgctggc ctggtcgaag 53460
cctccaacgt tgtttggggc atcggtaaga ccgccgctgt cggcgacctg gtccacgttg 53520
taatcaccaa cgctgacgta gcctaattgg ctgagccgga gcaatccggc tcttctccct 53580
cgattcaagg aatacaaatg tcccgtaaag taaagttctt cgacgcagag caaggcaaag 53640
aagtagagat cgaactgcgt gctgatatcg ctcgcctgat cgaccaagat gttcgtctga 53700
ccgatgacga cggcatcttc ttccagcgtc aactggaagc cattgaagct cagacctacg 53760
atgtgctcta tccggacctg gaagctcgta gctgcttcaa aaccaacacc ttcggtggtg 53820
ctggcgcccg taccctgacc taccgttctt tcgaccgtat cggtaaggcc caggtcatca 53880
acgctcgcgc taccgacctg ccgaagtccg acatctccgg taaagaatac tccatcactg 53940
tcaagtccgt aggcgtcgct tacgactacg acatcgacga gatcgctgcc gccaagatgg 54000
ctggtatgcc gctggaagct cgtaagacca tggctgctcg ccgtggctac gaggagtaca 54060
tcaactccgt tgtatggcgt ggtgatgctg atgccggtct gggtggcctg ttcaccaaca 54120
ccgacatccg ccgtaccgct gttgcccaag gcactgctgg taccaccggc tggagcacca 54180
agactccgga cgaagtgatc gctgacctga cccacgcttg tggcgacatg tacgcgacca 54240
ccaagaagat ccatgctccg aaagagatct ggatgtcgac cctgaactgg aattacctgt 54300
tctccactcc gcgtagcccg atgtctgaca agaccatcgg tgactacttc tgcgagaaca 54360
accagttcgg catcaagaag gagaacatca agccgctgaa cgagctggct gaaggtatcc 54420
ccatgggcac cggcgcaggc tctcactgtt t 54451
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