CN107446945A - A kind of induced expression of people source polypeptide in pichia yeast - Google Patents

A kind of induced expression of people source polypeptide in pichia yeast Download PDF

Info

Publication number
CN107446945A
CN107446945A CN201710738272.5A CN201710738272A CN107446945A CN 107446945 A CN107446945 A CN 107446945A CN 201710738272 A CN201710738272 A CN 201710738272A CN 107446945 A CN107446945 A CN 107446945A
Authority
CN
China
Prior art keywords
pichia yeast
rhggf2
polypeptide
rhcggf2
people source
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
CN201710738272.5A
Other languages
Chinese (zh)
Inventor
杨晓松
刘超
蔡飞
安琪
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hubei University of Science and Technology
Original Assignee
Hubei University of Science and Technology
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Hubei University of Science and Technology filed Critical Hubei University of Science and Technology
Priority to CN201710738272.5A priority Critical patent/CN107446945A/en
Publication of CN107446945A publication Critical patent/CN107446945A/en
Pending legal-status Critical Current

Links

Classifications

    • CCHEMISTRY; METALLURGY
    • C12BIOCHEMISTRY; BEER; SPIRITS; WINE; VINEGAR; MICROBIOLOGY; ENZYMOLOGY; MUTATION OR GENETIC ENGINEERING
    • C12NMICROORGANISMS OR ENZYMES; COMPOSITIONS THEREOF; PROPAGATING, PRESERVING, OR MAINTAINING MICROORGANISMS; MUTATION OR GENETIC ENGINEERING; CULTURE MEDIA
    • C12N15/00Mutation or genetic engineering; DNA or RNA concerning genetic engineering, vectors, e.g. plasmids, or their isolation, preparation or purification; Use of hosts therefor
    • C12N15/09Recombinant DNA-technology
    • C12N15/63Introduction of foreign genetic material using vectors; Vectors; Use of hosts therefor; Regulation of expression
    • C12N15/79Vectors or expression systems specially adapted for eukaryotic hosts
    • C12N15/80Vectors or expression systems specially adapted for eukaryotic hosts for fungi
    • C12N15/81Vectors or expression systems specially adapted for eukaryotic hosts for fungi for yeasts
    • C12N15/815Vectors or expression systems specially adapted for eukaryotic hosts for fungi for yeasts for yeasts other than Saccharomyces
    • CCHEMISTRY; METALLURGY
    • C07ORGANIC CHEMISTRY
    • C07KPEPTIDES
    • C07K14/00Peptides having more than 20 amino acids; Gastrins; Somatostatins; Melanotropins; Derivatives thereof
    • C07K14/435Peptides having more than 20 amino acids; Gastrins; Somatostatins; Melanotropins; Derivatives thereof from animals; from humans
    • C07K14/475Growth factors; Growth regulators
    • C07K14/4756Neuregulins, i.e. p185erbB2 ligands, glial growth factor, heregulin, ARIA, neu differentiation factor
    • CCHEMISTRY; METALLURGY
    • C07ORGANIC CHEMISTRY
    • C07KPEPTIDES
    • C07K2319/00Fusion polypeptide
    • C07K2319/20Fusion polypeptide containing a tag with affinity for a non-protein ligand
    • C07K2319/21Fusion polypeptide containing a tag with affinity for a non-protein ligand containing a His-tag
    • CCHEMISTRY; METALLURGY
    • C12BIOCHEMISTRY; BEER; SPIRITS; WINE; VINEGAR; MICROBIOLOGY; ENZYMOLOGY; MUTATION OR GENETIC ENGINEERING
    • C12NMICROORGANISMS OR ENZYMES; COMPOSITIONS THEREOF; PROPAGATING, PRESERVING, OR MAINTAINING MICROORGANISMS; MUTATION OR GENETIC ENGINEERING; CULTURE MEDIA
    • C12N2800/00Nucleic acids vectors
    • C12N2800/22Vectors comprising a coding region that has been codon optimised for expression in a respective host

Abstract

The invention provides a kind of induced expression of people source polypeptide in pichia yeast, belong to biomedicine technical field.It solves the technical problems such as induced expression of people's source protein in pichia yeast.A kind of induced expression of people source polypeptide in pichia yeast, the nucleotide construction of the coding prevention of codon optimization and (or) the β of people source polypeptide rhNRG 1 for the treatment of cardiomyopathy is entered into pichia yeast expression vector, then it is transferred to pichia yeast and carries out induced expression, obtains described polypeptide.The present invention has the advantages that the people source polypeptide that can be prevented and (or) treated cardiomyopathy.

Description

A kind of induced expression of people source polypeptide in pichia yeast
Technical field
The invention belongs to biomedicine technical field, is related to a kind of induced expression of people source polypeptide in pichia yeast.
Background technology
Heart failure is also known as heart failure, congestive heart failure etc., is referred to as the epidemic disease of 21st century, is global morbidity Rate, the death rate and medical expense highest principal disease.Inflammation caused by myocardial infarction, infection, the heart caused by metabolic disorder The change etc. of structure, function is all to trigger the important risk factor of heart failure.Although the pathogenesis about heart failure has been permitted More reports, but there is presently no the treatment that very effective medicine is used for heart failure.Angiotensin-Converting (ACE) presses down Preparation is reduced blood pressure, lightening heart load, there is the effect of certain to heart failure by expanding blood vessel, but therapeutic effect is very limited, It is also possible to be accompanied by side effect simultaneously.Not only expensive, wound is big as performed the operation for other treatment methods, and donor has very much Limit.With the aggravation of aging population, the demand of cardiovascular drugs is also stepped up, and the whole world spends in heart failure every year The fund of disease treatment is about 108,000,000,000 dollars, and market is huge.At home, in terms of heart failure therapy drug development also in rising The medicine listing of step section, up to now 3 treatment heart failure of only three domestic corporation's exploitations, and biological species medicine is only 1 kind (rhBNP).Therefore, the effective treatment heart failure bio-pharmaceutical of exploitation seems particularly urgent, important.
Nerve modulation element (Neuregulins, NRGs) belongs to the polypeptide nerve growth factor of a kind of regulation growth and differentiation Son, belong to EGF (EGF) family member, have expression in nervous system, cardiovascular system, mammary gland, intestines and kidney.NRGs Gene family is made up of NRG-1, NRG-2, NRG-3, NRG-4, and coding produces different NRGs.They all contain similar structure Domain, including immunoglobulin (Ig) sample cyclic structure, EGF (EGF) spline structure domain, transmembrane region and length are not etc. Intracellular region domain.It has now been found that NRG-1 is in cardiovascular and cerebrovascular disease, diabetic cardiomyopathy, diabetic nephropathy, obesity Cardiomyopathy etc. all has certain prevention and treatment effect.Different montages and different promoters due to NRGs mRNA Enable, the Neuregulin-1 (NRG-1) of cross-cell membrane can produce the different isomer protein of kind more than 30, according to its N-terminal The difference of sequence, NRG-1 isomers can be divided into 6 classes (I- VI), including acetylcholinergic receptor induced activation body (acetylcholine receptor inducing activity, ARIA), neural differentiation factor (neudifferentiation factor, NDF), people Neuregulin (heregulin, HRG), glial growth factor (glial growth factor, GGF), feel and motor neuron derived factor (sensorimotor-derived Factor, SMDF) etc..They have the difference in certain tissue specificity and structure.HRG hypotypes contain immune spherical structure (immunoglobulin, Ig) and EGF-like domains, GGF and GGF2 hypotypes also sequence containing kringle-like, SMDF are sub- Type but only has EGF-like domains [13,14].Pro-NRG-1 expression of the NRG-1 majorities in the form of cross-film is thin in myocardium endothelium On after birth, the N-terminal polypeptide that is then in through extracellular protein enzyme hydrolysis outside film, the NRG-1 of maturation is discharged.Shear these Pro-NRG- 1 membrane proteolytic enzyme includes β Amyloid precursor proteins shearing enzyme 1 (β-secretase 1, BACE1) and meltrin (TACE) β (ADAM19) etc..NRG-1 is one of member of most study in NRGs families, and research shows, NRG-1 can promote breast epithelium Cell, spongiocyte, neuronal cell and the propagation of myocyte, differentiation and survival.NRG-1 alternative splicings in transcription And a variety of hypotypes are formed, Type I types include an Ig and ball but Aries domain are immunized, and are the important albumen of heart development;Type II type includes Kringle regions and immunoglobulin like domain, expresses N-terminal secreting signal peptide;The types of Type III include one Domain rich in cysteine, is mainly expressed in neuronal cell.But three of the above hypotype all contains EFG domains, This domain of alternative splicing can form two kinds of variants in transcription, both α and β.Many research discoveries, NRG-1 β hypotype One of ----GGF2 (refers to GGF2) without specified otherwise, NRG-1 β below, promotes heart development, is given birth in cardiovascular biology and pathology Aspect of science all plays an important role.Many Research of Animal Model for Study it has been reported that NRG-1 β in ischemic cardiomyopathy, the diabetes heart Myopathy etc. plays important protective effect, and thinks that NRG-1 β are probably a kind of very promising heart failure therapy medicine Thing.
In terms of the beta mediated cardiomyopathy protection mechanism researchs of NRG-1, NRG-1 β/ErbB signal paths play important regulating and controlling Effect.Under compensatory heart failure early stage, myocardium stressed condition, NRG-1 β/ErbB signal paths are activated, and in cardiomyopathy process And activity reduces under the conditions of metabolic imbalance.Proteolytic enzyme (BACE1, ADAM10) mediates myocardium endothelial cell surface release NRG- 1 β, it interacts with one of myocardial cell surface ErbB3,4 receptor tyrosine kinases, mediates ErbB3/4 or ErbB4/4 dimerization The formation of body, or mediation ErbB3/2 or ErbB4/2 dimers formation, activate NRG-1 β/ErbB signal paths, as MAPK, PI3K/Akt etc. influences cells survival, migration, propagation, adhesion and differentiation performance.
In cardiovascular system, NRG-1 β mainly by endocardial endothelial cell and CMEC expression and discharge, and ErbB4 and ErbB2 expresses in cardiac muscle, and ErbB3 is expressed in the interstitial cell of endocardial cushion.Zoopery proves NRG-1 β/ErbB System plays a significant role during myocardium bone trabecula and heart development;The NRG-1 β of source of endothelial cells pass through PI3K/Akt Signal suppresses the release of cromoci and caspase-3 activity and protects oxidative stress and anthracene nucleus medicament to induce cardiac muscle to wither The cell death of dying property;NRG-1 β cause cardiac muscle insensitive to isoprel by activating myocardium eNOS signals, so as to self Adjust Acute myocardial stress and chronic heart failure, including diabetes and diabetic cardiomyopathy in chronic myocardial metabolic stress;Also have Report NRG-1 β can promote appropriate revascularization and arteriogenesis in the damage of scarce inducing heart vessel blood, be advantageous to damage Recover.
The clinical research for being used to treat heart failure about NRG-1 β has also been carried out, several myocardial infarctions, adriamycin induction cardiac muscle Disease, diabetic cardiomyopathy and myocarditis results of animal show that NRG-1 β can be obviously improved in heart failure prevention and treatment Myocardial function, the expression of disease markers is weakened, extend the animal survival cycle.Research report shows that NRG-1 β are used to treat at present The mechanism of heart failure includes promoting cardiac muscle cell's renewal, protection myocardial cell injury, stable muscle segment institutional framework, remodeling ventricle Reverse, promote angiogenesis, reduction mitochondria dysfunction, reduce oxidative stress, suppress generation, the myocardium calcium of regulation and control of apoptosis Ion homeostasis etc..
In summary, NRG-1 beta polypeptides have important answer in terms of heart failure and its related myocardium prevention and treatment of diseases With value and higher DEVELOPMENT PROSPECT, but the presently used NRG-1 beta polypeptides modes of production are mainly mammalian cell table Up to Bacillus coli expression two ways, the former production cost is higher, and the latter obtain polypeptide do not possess eucaryote expression institute Obtain the higher structure and necessary chemical modification (such as glycosylation, nitration modification), particularly Bacillus coli cells wall of polypeptide Upper endotoxic interference, increase production cost and difficulty for later stage peptide purification.Therefore, a kind of simple, high efficient expression tool of exploitation The expression system of higher structure and the rhNRG-1 beta polypeptides of chemical modification, and a kind of simple and effective purification process, will be While keeping polypeptide high activity, production cost is substantially reduced, therefore there is wide exploitation and application prospect.
The content of the invention
The purpose of the present invention is to be directed to above mentioned problem existing for existing technology, there is provided a kind of people source polypeptide is in pichia yeast In induced expression, the technical problems to be solved by the invention are the people sources for the prevention and treatment cardiomyopathy for how obtaining high activity Polypeptide.
The purpose of the present invention can be realized by following technical proposal:A kind of induction table of people source polypeptide in pichia yeast Reach, its feature is, the coding of codon optimization is prevented and treated to the people source polypeptide rhNRG-1 β of cardiomyopathy nucleosides Acid sequence is built into pichia yeast expression vector, is then transferred to pichia yeast and carries out induced expression, obtains described polypeptide;
RhNRG-1 β include total length people source polypeptide rhGGF2, rhGGF2 part of polypeptide rhcGGF2, pass through HIS pairs RhGGF2 be marked after polypeptide HIS-rhGGF2 and the polypeptide HIS- after rhcGGF2 is marked by HIS rhcGGF2;
According to total length people source polypeptide rhGGF2 polypeptid acid sequence and pichia yeast codon-bias, will pass through The nucleotide sequence of encoding human source polypeptide rhGGF2 after codon optimization is built into Yeast expression carrier, or will pass through password The nucleotide sequence of encoding human source polypeptide rhGGF2 after son optimization is connected with HIS (6 × his) label, is then transferred to Bi Shi ferment Mother, screened by positive colony, obtain the high expression bacterial strain of rhGGF2 high expression bacterial strain and HIS-rhGGF2 respectively.
Part of polypeptide rhcGGF2 is according to people source rhGGF2 polypeptid acid sequences, removes rhGGF2 signal peptide sequences, obtains Obtain the rhcGGF2, then according to pichia yeast codon-bias, the encoding human source polypeptide after codon is optimized RhcGGF2 nucleotide sequence is built into Yeast expression carrier, or the encoding human source polypeptide after codon is optimized RhcGGF2 nucleotide sequence is connected with HIS (6 × his) label, is then transferred to pichia yeast, is screened by positive colony, point Huo get not rhcGGF2 height expression bacterial strain and HIS-rhcGGF2 high expression bacterial strain.
Obviously, any polypeptide interested can be expressed using the above method.
In a kind of induced expression of the above-mentioned people source polypeptide in pichia yeast, the nucleotides sequence of the coding rhGGF2 Row such as Nucleinic acid SEQ ID NO:1, corresponding peptide sequence such as Peptide No.1;The coding HIS- RhGGF2 nucleotide sequence such as Nucleinic acid SEQ ID NO:2, corresponding peptide sequence such as Peptide No.2; The nucleotide sequence such as Nucleinic acid SEQ ID NO of the coding rhcGGF2:3, corresponding peptide sequence is such as Peptide No.3;The nucleotide sequence such as Nucleinic acid SEQ ID NO of the coding HIS-rhcGGF2:4, accordingly Peptide sequence such as Peptide No.4.
In a kind of induced expression of the above-mentioned people source polypeptide in pichia yeast, the pichia yeast inducible expression carrier It is pHKY01.Pichia yeast inducible expression carrier can select arbitrary pichia yeast inducible expression carrier, can realize this Invention, is optimal using pHKY01.
In a kind of induced expression of the above-mentioned people source polypeptide in pichia yeast, the pichia yeast is pichia yeast GS115.Pichia yeast can also select arbitrary pichia yeast bacterial strain, can realize the present invention.
In a kind of induced expression of the above-mentioned people source polypeptide in pichia yeast, rhGGF2 the and rhcGGF2 polypeptides In pichia yeast after induced expression, its purification process isolates and purifies the albumen using ion-exchange chromatography.
In a kind of induced expression of the above-mentioned people source polypeptide in pichia yeast, the HIS-rhGGF2 and HIS- RhcGGF2 polypeptides are in pichia yeast after induced expression, and its purification process is using Ni- nickel affinity purifications column chromatography method purifying institute State albumen.
The second aspect of the present invention, there is provided the people source polypeptide of one kind prevention and (or) treatment cardiomyopathy, be characterized in, adopt It is prepared with derivational expression method of the above-mentioned people source polypeptide in pichia yeast.
The third aspect of the present invention, there is provided above-mentioned prevention and (or) the people source polypeptide for the treatment of cardiomyopathy are preparing clinic Application in medicine.
The beneficial effects of the present invention are:Prevent in the present invention and (or) treat the people source polypeptide of cardiomyopathy in pichia yeast In derivational expression method be that the nucleotide sequence of the encoding human source polypeptide of codon optimization is built into pichia yeast and lured Lead in expression vector, be then transferred to pichia yeast and carry out induced expression, prevented and (or) treated the people source polypeptide of cardiomyopathy, Expression quantity can be of about 100mg/L;People source polypeptide shows through In vitro cell experiment and animal model experiment, can be effectively improved H2O2The myocardial necrosis that the myocardial cell injury and myocardial ischemia of induction induce.The skillful in design, height can be readily available The people source polypeptide of the prevention and treatment cardiomyopathy of activity, purifying process is simple, suitable for large-scale promotion application.
Brief description of the drawings
Fig. 1 is plasmid pHKY01-rhGGF2 structure collection of illustrative plates.
Fig. 2 is plasmid pHKY01-rhcGGF2 structure collection of illustrative plates.
Fig. 3 is plasmid pHKY01-HIS-rhGGF2 structure collection of illustrative plates.
Fig. 4 is plasmid pHKY01-HIS-rhcGGF2 structure collection of illustrative plates.
Embodiment
It is the specific embodiment of the present invention and with reference to accompanying drawing below, technical scheme is further described, But the present invention is not limited to these embodiments.
Embodiment one
Induced expression of a kind of people source rhGGF2 polypeptides in pichia yeast, it is intended to which people source is expressed by pichia yeast RhGGF2 polypeptides, method are as follows:
According to people source GGF2 protein amino acid sequences and pichia yeast codon-bias, after codon is optimized Encoding human source rhGGF2 nucleotide sequence is built into Yeast expression carrier pHKY01, or the volume after codon is optimized Code people source rhGGF2 nucleotide sequence is connected with HIS (6 × his) label, is then transferred to expressive host bacterial strain pichia yeast GS115, screened by positive colony, obtain high expression bacterial strain GS115-rhGGF2 and high expression bacterial strain GS115-HIS- respectively rhGGF2;Induced expression in pichia yeast obtains polypeptide rhGGF2, and its purification process is separated pure using ion-exchange chromatography Change the albumen;Induced expression in pichia yeast obtains polypeptide HIS-rhGGF2, and its purification process is affine pure using Ni- nickel Change column chromatography method and purify the albumen.
Traditional people source rhGGF2 polypeptides are expressed by zooblast, animal cell expression, purifying and acquisition, its Expression quantity is small, and the cycle is long, costly, and this programme can not only be obtained similar dynamic by the induced expression in pichia yeast The expression of thing cell has higher structure and the polypeptide (glycosylation modified etc.) of chemical modification, and pichia yeast genetic engineering bacterium GS115-rhGGF2 and GS115-HIS-rhGGF2 high expression, high activity, can substantially reduce research and development, production cost, due to Compared to zooblast, the acquisition of pichia yeast, growing environment, obtain the cycle and all optimize in zooblast, highly this area Technical staff's promotion and application.
Encode rhGGF2 nucleotide sequence Nucleinic acid SEQ ID NO:1 has more than 70% identical nucleic acid;Compile Code rhGGF2 nucleotide sequence and Peptide SEQ ID NO:1 amino acid sequence is corresponding;
Encode HIS-rhGGF2 nucleotide sequence Nucleinic acid SEQ ID NO:2 have more than 70% identical core Acid;Encode HIS-rhGGF2 nucleotide sequence and Peptide SEQ ID NO:2 amino acid sequence is corresponding;
Embodiment two
RhGGF2 is full-length polypeptide, obtains the expression of high activity, can also use part of polypeptide rhGGF2 in pichia yeast Middle induced expression, its method are as follows:
According to the GENEBANK people source GGF2 protein amino acid sequences shown and its explanation, by the signal of people source GGF2 albumen Peptide removes, and remaining part of polypeptide is named as rhcGGF2, according to polypeptide rhcGGF2 amino acid sequence and pichia yeast password Sub- preferences, the nucleotide construction of the encoding human source rhcGGF2 polypeptides after codon optimization enter Yeast expression carrier In pHKY01, or the nucleotides of the encoding human source rhcGGF2 after codon is optimized and HIS (6 × his, CATCATCATCATCATCAT) label connects, and is then transferred to pichia yeast GS115, is screened by positive colony, obtains respectively high Bacterial strain GS115-rhcGGF2 and high expression bacterial strain GS115-HIS-rhcGGF2 are expressed, induced expression is obtained in pichia yeast RhcGGF2 polypeptides, its purification process isolate and purify the polypeptide using ion-exchange chromatography;Induced expression in pichia yeast Obtained polypeptide HIS-rhcGGF2, its purification process use Ni- nickel affinity purification column chromatography method purified polypeptides.
Coding rhcGGF2 nucleotide sequence has more than 70% identical core for Nucleinic acid SEQ ID NO.3 Acid, its corresponding amino acid sequence are Peptide SEQ ID NO.3
Coding HIS-rhcGGF2 nucleotide sequence is Nucleinic acid SEQ ID NO.4, its corresponding amino acid Sequence is Peptide SEQ ID NO.4.
Embodiment three
Polypeptide rhNRG-1 improves H2O2Inducing cardiomyocytes apoptosis
1st, the separation and culture of primary neonatal cardiac myocytes (NRCM)
1) the Sprague-Dawley rats that just birth 1-3 is extremely big are taken, aseptically cut off suckling mouse chest with operating scissors Chamber, suckling mouse apex of the heart part is cut, be put into D-Hank ' s liquid to the cold and wash three times, then use clean suckling mouse apex of the heart tissue Scissors shreds (about 1mm3Size)
2) the heart tissue fragment 3-5 of the above is digested under the conditions of 37 DEG C with 0.4% clostridiopetidase A II and 0.5% trypsase Minute, then digestion supernatant is removed;
3) digestion process of step 2) is repeated, and it is isometric with sterile centrifugation tube, adding to collect supernatant digestive juice DMEM nutrient solutions (contain 10%FBS);
4) repeat step 3) 3-5 times, until tissue has digested substantially, then the supernatant of all collections is blown and beaten into cell and hanged Liquid, collect cell within 5 minutes with 1000 revs/min of centrifugations under normal temperature, add DMEM nutrient solutions (contain 10%FBS) wash, Cell is collected by centrifugation, repeats 2-3 times.
5) cell suspension is finally inserted into CO2After incubator culture 75-90 minutes, not adherent cell suspension is suctioned out, is moved Enter in new culture plate, insert CO2Incubator continues culture 24 hours;
6) cardiac muscle cell after being cultivated 24 hours more than changes liquid and removes not adherent cell, hereafter the next day change liquid, micro- Visible pulsatile heart myocyte under mirror.
2nd, polypeptide rhNRG-1 weakens H2O2Induce the experiment of NRCM apoptosis
1)H2O2Induce the foundation of NRCM Apoptosis Models:In the NRCM of culture, 4 groups are divided into, every group is separately added into final concentration Respectively 0,100,200,400 μM of H2O2Processing 3 hours, then collects cell, is examined using ANNEXIN V-FITC/PI apoptosis Test agent box handles cell, then does flow cytometry, as a result shows H2O2It is that cell mortality reaches at final concentration of 200 μM 40% or so, establish H2O2NRCM Apoptosis Models are induced to use final concentration of 200 μM of H2O2, processing time is 3 hours;
2) rhNRG-1 weakens H2O2Induce the experiment of NRCM apoptosis
Point be now 4 each groups by the NRCM of culture, add 0 respectively, 100,200,400ng/mL rhNRG-1 pretreatment cells 30 Minute, then add final concentration of 200 μM of H2O2Processing 3 hours, cell is collected, examined using ANNEXIN V-FITC/PI apoptosis Test agent box handles cell, then does flow cytometry, as a result shows that the final concentration of 100-400ng/mL of rhNRG-1 can have Effect reduces H2O2NRCM apoptosis is induced, and 200ng/mL efficiency is best, about reduces 40-50%H2O2Induce NRCM apoptosis.
Example IV
1st, the foundation of male Sprague Dawley rat model of myocardial infarction
1) anaesthetize:The male Sprague Dawley rats of 175-200g weights are chosen, are injected by way of intraperitoneal injection 30mg/kg anaesthetized with pentobarbital rat, to pinch rat toe by the use of hand, rat does not react and is used as suitable level of anesthesia;
2) it is intubated:Fixed rat, rat front tooth is tangled with rope or rubber band, and the holding layback of mouse head is easy to be intubated.With band The 16G venous detaining needles (cutting off tip) of tube core are gently sent into forward (note through glottis:Not touch glottis surrounding tissue), so After extract tube core, can with a hair critical point detection intubation whether succeed;
3) setting of lung ventilator:Lung ventilator is arranged to volume controlled pattern, and tidal volume is 1mL/100g body weight, respiratory rate For 50-65 beats/min, respiratory quotient 1:1, fraction of inspired oxygen 100%.
4) open chest surgery on the left of the progress of the 4th intercostal, is tied arteria coroaria sinistra with 6-0 non-traumatic sewing threads, with observation Distal myocardium surface is blue at from ligation, and Electrocardiography S-T segment is raised as there is myocardial infarction symptom, is then squeezed Intrathoracic air is pressed, sutures thoracic cavity, 400,000 units of Penicillin are injected in rat abdominal cavity with pre- aseptic generation.
2nd, rhNRG-1 improves myocardial infarction
Experiment is chosen postoperative one week rat still to survive and is grouped as research object, control group, model group, administration group (1mg/kg, 3mg/kg, 6mg/kg), administration group is administered by tail vein, is every other day administered once, and blank group injection is without more The solvent (physiological saline) of peptide medicine, per heart function of weekly check, as a result show, low dose group (1mg/kg) is to heart function Improve it is limited,.3mg/kg, 6mg/kg dosage group can be obviously improved myocardial function, it was demonstrated that the rhNRG-1 polypeptides of this method production There is preferable cardiomyopathy therapeutic effect.
Specific embodiment described herein is only to spirit explanation for example of the invention.Technology belonging to the present invention is led The technical staff in domain can be made various modifications or supplement to described specific embodiment or be replaced using similar mode Generation, but without departing from the spiritual of the present invention or surmount scope defined in appended claims.
Peptide SEQ ID No.1(rhGGF2)
MRWRRAPRRSGRPGPRAQRPGSAARSSPPLPLLPLLLLLGTAALAPGAAAGNEAAPAGASVCYSSPPSV GSVQELAQRAAVVIEGKVHPQRRQQGALDRKAAAAAGEAGAWGGDREPPAAGPRALGPPAEEPLLAANGTVPSWPTA PVPSAGEPGEEAPYLVKVHQVWAVKAGGLKKDSLLTVRLGTWGHPAFPSCGRLKEDSRYIFFMEPDANSTSRAPAAF RASFPPLETGRNLKKEVSRVLCKRCALPPRLKEMKSQESAAGSKLVLRCETSSEYSSLRFKWFKNGNELNRKNKPQN IKIQKKPGKSELRINKASLADSGEYMCKVISKLGNDSASANITIVESNATSTSTTGTSHLVKCAEKEKTFCVNGGEC FMVKDLSNPSRYLCKCPNEFTGDRCQNYVMASFYSTSTPFLSLPE
Nucleinic acid SEQ ID NO.1(rhGGF2)
ATGAGATGGAGAAGAGCTCCAAGAAGATCTGGTAGACCAGGTCCAAGAGCACAAAGACCAGGTTCTGCC GCTAGATCTTCTCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACAGCTGCATTGGCTCCAGGTGCTGC CGCTGGCAACGAAGCTGCTCCAGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTGGTTCTGTTCAAGAAT TGGCTCAAAGGGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGATAGAAAG GCTGCTGCTGCTGCTGGAGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCAAGAGCTTTAGG TCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCATCAGCTG GTGAACCAGGTGAGGAAGCTCCATACTTGGTCAAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAAG GATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCCAGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTC TAGATACATTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCGCTGCTTTTAGAGCCTCTTTTCCAC CATTGGAAACTGGCAGAAACTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTTGCCACCAAGATTG AAGGAAATGAAGTCTCAAGAATCTGCTGCTGGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCCTC TCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTAAGAACAAGCCACAAAACATCAAGATTCAGAAGA AGCCCGGTAAGTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTGAGTACATGTGCAAAGTTATCAGT AAGCTGGGTAACGATTCTGCTTCTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTACTACTGGTAC CTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACTTTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACT TGTCTAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGGTGACAGATGCCAGAACTACGTTATGGCA TCTTTTTACTCCACTAGTACTCCATTTCTTTCATTGCCTGAA
Peptide SEQ ID No.2(HIS-rhGGF2)
HHHHHHRWRRAPRRSGRPGPRAQRPGSAARSSPPLPLLPLLLLLGTAALAPGAAAGNEAAPAGASVCYS SPPSVGSVQELAQRAAVVIEGKVHPQRRQQGALDRKAAAAAGEAGAWGGDREPPAAGPRALGPPAEEPLLAANGTVP SWPTAPVPSAGEPGEEAPYLVKVHQVWAVKAGGLKKDSLLTVRLGTWGHPAFPSCGRLKEDSRYIFFMEPDANSTSR APAAFRASFPPLETGRNLKKEVSRVLCKRCALPPRLKEMKSQESAAGSKLVLRCETSSEYSSLRFKWFKNGNELNRK NKPQNIKIQKKPGKSELRINKASLADSGEYMCKVISKLGNDSASANITIVESNATSTSTTGTSHLVKCAEKEKTFCV NGGECFMVKDLSNPSRYLCKCPNEFTGDRCQNYVMASFYSTSTPFLSLPE
Nucleinic acid SEQ ID NO.2(HIS-rhGGF2)
CATCATCATCATCATCATAGATGGAGAAGAGCTCCAAGAAGATCTGGTAGACCAGGTCCAAGAGCACAA AGACCAGGTTCTGCCGCTAGATCTTCTCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACAGCTGCATT GGCTCCAGGTGCTGCCGCTGGCAACGAAGCTGCTCCAGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTG GTTCTGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCCCAAAGAAGACAACAGGGT GCTTTGGATAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCAGCTGCTGG TCCAAGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTC CAGTTCCATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTCAAGGTTCATCAAGTTTGGGCTGTTAAGGCT GGTGGTTTGAAGAAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCCAGCCTTTCCATCTTGTGGTAG GCTGAAGGAGGATTCTAGATACATTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCGCTGCTTTTA GAGCCTCTTTTCCACCATTGGAAACTGGCAGAAACTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCT TTGCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCTGGTTCAAAATTGGTTTTGAGGTGCGAGACTTC CAGTGAATACTCCTCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTAAGAACAAGCCACAAAACA TCAAGATTCAGAAGAAGCCCGGTAAGTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTGAGTACATG TGCAAAGTTATCAGTAAGCTGGGTAACGATTCTGCTTCTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCAC TTCTACTACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACTTTCTGTGTTAACGGTGGTGAATGTT TCATGGTTAAGGACTTGTCTAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGGTGACAGATGCCAG AACTACGTTATGGCATCTTTTTACTCCACTAGTACTCCATTTCTTTCATTGCCTGAA
Peptide SEQ ID No.3(rhcGGF2)
MGNEAAPAGASVCYSSPPSVGSVQELAQRAAVVIEGKVHPQRRQQGALDRKAAAAAGEAGAWGGDREPP AAGPRALGPPAEEPLLAANGTVPSWPTAPVPSAGEPGEEAPYLVKVHQVWAVKAGGLKKDSLLTVRLGTWGHPAFPS CGRLKEDSRYIFFMEPDANSTSRAPAAFRASFPPLETGRNLKKEVSRVLCKRCALPPRLKEMKSQESAAGSKLVLRC ETSSEYSSLRFKWFKNGNELNRKNKPQNIKIQKKPGKSELRINKASLADSGEYMCKVISKLGNDSASANITIVESNA TSTSTTGTSHLVKCAEKEKTFCVNGGECFMVKDLSNPSRYLCKCPNEFTGDRCQNYVMASFYSTSTPFLSLPE
Nucleinic acid SEQ ID NO.3
ATGGGCAACGAAGCTGCTCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGGTTCTGTT CAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGA TAGAAAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAAGAG CTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCA TCAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAGGTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTT GAAGAAGGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCAGCTTTTCCATCTTGTGGTCGTTTGAAAG AAGACTCCAGGTACATTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCCCGCTGCTTTCAGAGCTTCT TTTCCACCATTGGAAACGGGTAGAAACTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTGCCACC AAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCTGGTTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGT ACAGTTCTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAAAACAAGCCCCAAAACATAAAGATT CAAAAGAAGCCTGGCAAGTCTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAATACATGTGTAAGGT TATTTCCAAGTTGGGTAACGATTCTGCTTCTGCTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGA CTGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCTTTTGTGTTAACGGTGGTGAATGTTTTATGGTT AAGGACTTGTCTAACCCATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGATAGATGTCAAAACTACGT CATGGCTTCTTTCTACTCTACCTCTACCCCATTTTTGTCTTTGCCAGAA
Peptide SEQ ID No.4(HIS-rhcGGF2)
HHHHHHGNEAAPAGASVCYSSPPSVGSVQELAQRAAVVIEGKVHPQRRQQGALDRKAAAAAGEAGAWGG DREPPAAGPRALGPPAEEPLLAANGTVPSWPTAPVPSAGEPGEEAPYLVKVHQVWAVKAGGLKKDSLLTVRLGTWGH PAFPSCGRLKEDSRYIFFMEPDANSTSRAPAAFRASFPPLETGRNLKKEVSRVLCKRCALPPRLKEMKSQESAAGSK LVLRCETSSEYSSLRFKWFKNGNELNRKNKPQNIKIQKKPGKSELRINKASLADSGEYMCKVISKLGNDSASANITI VESNATSTSTTGTSHLVKCAEKEKTFCVNGGECFMVKDLSNPSRYLCKCPNEFTGDRCQNYVMASFYSTSTPFLSLP E
Nucleinic acid SEQ ID NO.4(HIS-rhcGGF2)
CATCATCATCATCATCATGGCAACGAAGCTGCTCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCA TCTGTTGGTTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCACAACGTAGACA ACAAGGTGCTCTGGATAGAAAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCTG CTGCTGGTCCAAGAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCA ACTGCTCCAGTTCCATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAGGTTCATCAGGTTTGGGCTGT TAAGGCTGGTGGTTTGAAGAAGGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCAGCTTTTCCATCTT GTGGTCGTTTGAAAGAAGACTCCAGGTACATTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCCCGCT GCTTTCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAACTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCG TTGTGCTTTGCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCTGGTTCCAAGTTGGTATTGAGATGCG AGACTTCTTCCGAGTACAGTTCTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAAAACAAGCCC CAAAACATAAAGATTCAAAAGAAGCCTGGCAAGTCTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGA ATACATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTGCTAACATTACAATTGTTGAGTCCAACGCTA CATCTACTTCTACGACTGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCTTTTGTGTTAACGGTGGT GAATGTTTTATGGTTAAGGACTTGTCTAACCCATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGATAG ATGTCAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCCCATTTTTGTCTTTGCCAGAA
Sequence Nucleinic acid SEQ ID No.1 amplimers
1 ATCTCGAGAAAAGAGAGGCTGAAGCTATGAGATGGAGAAGAGCTCCAAGAAGATCTGGTAG ACCA 39
2 TGGTCTTTGTGCTCTTGGACCTGGTCTACCAGATCTTCTTGGA 43
3 GTCCAAGAGCACAAAGACCAGGTTCTGCCGCTAGATCTTC 40
4 CAACAATGGCAAAGGTGGAGAAGATCTAGCGGCAGAACC 39
5 TCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACA 43
6 CCTGGAGCCAATGCAGCTGTACCCAACAACAATAATAGTGG 41
7 GCTGCATTGGCTCCAGGTGCTGCCGCTGGCAACGAA 36
8 AACAAACAGAAGCTCCAGCTGGAGCAGCTTCGTTGCCAGCGGCA 44
9 AGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTG 41
10 TGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAGT 43
11 GTTCTGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGA 43
12 CTTTGGGGATGAACCTTACCTTCAATAACAACAGCAGCCCTT 42
13 AGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGA 42
14 GCAGCAGCAGCCTTTCTATCCAAAGCACCCTGTTGTC 37
15 TAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGC 36
16 GTTCTCTATCACCACCCCAAGCACCAGCTTCTCCAGC 37
17 TTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCA 37
18 GCTGGTGGACCTAAAGCTCTTGGACCAGCAGCTGGTG 37
19 AGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTG 40
20 CAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTTCA 42
21 CTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCC 40
22 ACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGGC 37
23 ATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTC 40
24 AGCCCAAACTTGATGAACCTTGACCAAGTATGGAGCTTCCTC 42
25 AAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAG 42
26 CCTAACAGTCAACAAAGAATCCTTCTTCAAACCACCAGCCTTAAC 45
27 AAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCC 44
28 CTACCACAAGATGGAAAGGCTGGATGACCCCAAGTACCCAA 41
29 AGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTCTAGATACA 44
30 GCATCGGGTTCCATGAAAAAAATGTATCTAGAATCCTCCTTCAGC 45
31 TTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCG 45
32 GGAAAAGAGGCTCTAAAAGCAGCGGGAGCTCTAGAAGTAGAGTTA 45
33 CTGCTTTTAGAGCCTCTTTTCCACCATTGGAAACTGGCAGAAA 43
34 ACTCTAGAAACCTCCTTCTTCAAGTTTCTGCCAGTTTCCAATGGT 45
35 CTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTT 45
36 CATTTCCTTCAATCTTGGTGGCAAAGCACATCTCTTGCACAAA 43
37 GCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCT 43
38 CACCTCAAAACCAATTTTGAACCAGCAGCAGATTCTTGAGACTT 44
39 GGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCC 45
40 TCTTAAACCACTTGAATCTCAGAGAGGAGTATTCACTGGAAGTCTCG 47
41 TCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTA 46
42 TTGATGTTTTGTGGCTTGTTCTTACGGTTCAATTCGTTACCGT 43
43 AGAACAAGCCACAAAACATCAAGATTCAGAAGAAGCCCGGTAA 43
44 GCCTTGTTAATTCTCAATTCAGACTTACCGGGCTTCTTCTGAATC 45
45 GTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTG 44
46 TTACTGATAACTTTGCACATGTACTCACCAGAGTCAGCCAAAGAA 45
47 AGTACATGTGCAAAGTTATCAGTAAGCTGGGTAACGATTCTGCTT 45
48 GACTCAACGATAGTAATGTTAGCAGAAGCAGAATCGTTACCCAGC 45
49 CTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTAC 46
50 AACCAAATGAGAGGTACCAGTAGTAGAAGTGGAGGTTGCGTTA 43
51 ACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACT 45
52 TTCACCACCGTTAACACAGAAAGTTTTTTCCTTCTCAGCACATTT 45
53 TTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACTTGTC 44
54 GCACAAGTACCTAGATGGGTTAGACAAGTCCTTAACCATGAAACA 45
55 TAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGG 45
56 CGTAGTTCTGGCATCTGTCACCTGTAAATTCGTTTGGACACTT 43
57 TGACAGATGCCAGAACTACGTTATGGCATCTTTTTACTCCACTAG 45
58 ATGCGGCCGCTTCAGGCAATGAAAGAAATGGAGTACTAGTGGAGTAAAAAGATGCCA TAA 60
Sequence Nucleinic acid SEQ ID No.2 amplimers
59 ATCTCGAGAAAAGAGAGGCTGAAGCTCATCATCATCATCATCAT 44
60 CATCATCATCATCATCATAGATGGAGAAGAGCTCCAAGAAGATCTGGTAGACCA 54
2 TGGTCTTTGTGCTCTTGGACCTGGTCTACCAGATCTTCTTGGA 43
3 GTCCAAGAGCACAAAGACCAGGTTCTGCCGCTAGATCTTC 40
4 CAACAATGGCAAAGGTGGAGAAGATCTAGCGGCAGAACC 39
5 TCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACA 43
6 CCTGGAGCCAATGCAGCTGTACCCAACAACAATAATAGTGG 41
7 GCTGCATTGGCTCCAGGTGCTGCCGCTGGCAACGAA 36
8 AACAAACAGAAGCTCCAGCTGGAGCAGCTTCGTTGCCAGCGGCA 44
9 AGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTG 41
10 TGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAGT 43
11 GTTCTGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGA 43
12 CTTTGGGGATGAACCTTACCTTCAATAACAACAGCAGCCCTT 42
13 AGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGA 42
14 GCAGCAGCAGCCTTTCTATCCAAAGCACCCTGTTGTC 37
15 TAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGC 36
16 GTTCTCTATCACCACCCCAAGCACCAGCTTCTCCAGC 37
17 TTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCA 37
18 GCTGGTGGACCTAAAGCTCTTGGACCAGCAGCTGGTG 37
19 AGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTG 40
20 CAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTTCA 42
21 CTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCC 40
22 ACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGGC 37
23 ATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTC 40
24 AGCCCAAACTTGATGAACCTTGACCAAGTATGGAGCTTCCTC 42
25 AAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAG 42
26 CCTAACAGTCAACAAAGAATCCTTCTTCAAACCACCAGCCTTAAC 45
27 AAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCC 44
28 CTACCACAAGATGGAAAGGCTGGATGACCCCAAGTACCCAA 41
29 AGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTCTAGATACA 44
30 GCATCGGGTTCCATGAAAAAAATGTATCTAGAATCCTCCTTCAGC 45
31 TTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCG 45
32 GGAAAAGAGGCTCTAAAAGCAGCGGGAGCTCTAGAAGTAGAGTTA 45
33 CTGCTTTTAGAGCCTCTTTTCCACCATTGGAAACTGGCAGAAA 43
34 ACTCTAGAAACCTCCTTCTTCAAGTTTCTGCCAGTTTCCAATGGT 45
35 CTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTT 45
36 CATTTCCTTCAATCTTGGTGGCAAAGCACATCTCTTGCACAAA 43
37 GCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCT 43
38 CACCTCAAAACCAATTTTGAACCAGCAGCAGATTCTTGAGACTT 44
39 GGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCC 45
40 TCTTAAACCACTTGAATCTCAGAGAGGAGTATTCACTGGAAGTCTCG 47
41 TCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTA 46
42 TTGATGTTTTGTGGCTTGTTCTTACGGTTCAATTCGTTACCGT 43
43 AGAACAAGCCACAAAACATCAAGATTCAGAAGAAGCCCGGTAA 43
44 GCCTTGTTAATTCTCAATTCAGACTTACCGGGCTTCTTCTGAATC 45
45 GTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTG 44
46 TTACTGATAACTTTGCACATGTACTCACCAGAGTCAGCCAAAGAA 45
47 AGTACATGTGCAAAGTTATCAGTAAGCTGGGTAACGATTCTGCTT 45
48 GACTCAACGATAGTAATGTTAGCAGAAGCAGAATCGTTACCCAGC 45
49 CTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTAC 46
50 AACCAAATGAGAGGTACCAGTAGTAGAAGTGGAGGTTGCGTTA 43
51 ACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACT 45
52 TTCACCACCGTTAACACAGAAAGTTTTTTCCTTCTCAGCACATTT 45
53 TTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACTTGTC 44
54 GCACAAGTACCTAGATGGGTTAGACAAGTCCTTAACCATGAAACA 45
55 TAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGG 45
56 CGTAGTTCTGGCATCTGTCACCTGTAAATTCGTTTGGACACTT 43
57 TGACAGATGCCAGAACTACGTTATGGCATCTTTTTACTCCACTAG 45
58 ATGCGGCCGCTTCAGGCAATGAAAGAAATGGAGTACTAGTGGAGTAAAAAGATGCCA TAA 60
Sequence Nucleinic acid SEQ ID No.3 amplimers
61 ATCTCGAGAAAAGAGAGGCTGAAGCTATGGGCAACGAAGCTGC 41
62 CAGAGGCACCAGCTGGAGCAGCTTCGTTGCCCAT 34
63 TCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGG 45
64 TTTGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAG 44
65 TTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGG 45
66 TCTACGTTGTGGATGAACCTTACCTTCAATAACAACAGCAGCTC 44
67 TAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGATAGA 43
68 CAGCAGCAGCAGCCTTTCTATCCAGAGCACCTTGTTG 37
69 AAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCT 33
70 GGTTCTCTATCACCACCCCAAGCACCAGCTTCACCGG 37
71 TGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAA 37
72 CTGGTGGACCCAAAGCTCTTGGACCAGCAGCAGGT 35
73 GAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTA 42
74 CCAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTT 41
75 ACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCAT 39
76 CACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGG 37
77 CAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAG 41
78 ACAGCCCAAACCTGATGAACCTTAACTAGGTATGGAGCTTCCT 43
79 GTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAA 41
80 AATCTAACAGTCAACAAAGAGTCCTTCTTCAAACCACCAGCCTTA 45
81 GGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCA 43
82 CGACCACAAGATGGAAAAGCTGGATGACCCCAAGTACCC 39
83 GCTTTTCCATCTTGTGGTCGTTTGAAAGAAGACTCCAGGTACA 43
84 AGCATCTGGTTCCATGAAAAAAATGTACCTGGAGTCTTCTTTCAAA 46
85 TTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCC 43
86 GGAAAAGAAGCTCTGAAAGCAGCGGGAGCCCTAGAAGTGGAGTT 44
87 TGCTTTCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAA 42
88 AACTCTAGAAACTTCCTTCTTCAAGTTTCTACCCGTTTCCAATGGT 46
89 CTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTG 46
80 TTCATTTCCTTCAATCTTGGTGGCAAAGCACAACGCTTACACAG 44
91 CCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCT 42
92 GCATCTCAATACCAACTTGGAACCAGCGGCAGATTCTTGAGAC 43
93 TTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGTACAGTT 44
94 TCTTAAACCACTTGAACCTCAAAGAACTGTACTCGGAAGAAGTCTC 46
95 CTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAA 47
96 ATCTTTATGTTTTGGGGCTTGTTTTTTCTGTTCAATTCGTTACCGT 46
97 AACAAGCCCCAAAACATAAAGATTCAAAAGAAGCCTGGCAAGT 43
98 AGCCTTGTTAATCCTCAATTCAGACTTGCCAGGCTTCTTTTGA 43
99 CTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAA 44
100 ACTTGGAAATAACCTTACACATGTATTCACCAGAATCAGCCAAGG 45
101 TACATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTG 46
102 TGGACTCAACAATTGTAATGTTAGCAGAAGCAGAATCGTTACCCA 45
103 CTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGAC 46
104 ACTTAACCAAGTGAGAAGTACCAGTCGTAGAAGTAGATGTAGCGT 45
105 TGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCT 44
106 AAACATTCACCACCGTTAACACAAAAGGTCTTTTCCTTTTCAGCG 45
107 GTGTTAACGGTGGTGAATGTTTTATGGTTAAGGACTTGTCTAACCC 46
108 GCACTTACACAAGTAACGAGATGGGTTAGACAAGTCCTTAACCATA 46
109 ATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGAT 43
110 CCATGACGTAGTTTTGACATCTATCACCAGTGAATTCGTTTGG 43
111 AGATGTCAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCC 46
112 ATGCGGCCGCTTCTGGCAAAGACAAAAATGGGGTAGAGGTAGAGTAGAAAGAAG 54
Sequence Nucleinic acid SEQ ID No.4 amplimers
113 ATCTCGAGAAAAGAGAGGCTGAAGCTCATCATCATCATCATCATATGGGCAACGAA GCTGC 59
62 CAGAGGCACCAGCTGGAGCAGCTTCGTTGCCCAT 34
63 TCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGG 45
64 TTTGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAG 44
65 TTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGG 45
66 TCTACGTTGTGGATGAACCTTACCTTCAATAACAACAGCAGCTC 44
67 TAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGATAGA 43
68 CAGCAGCAGCAGCCTTTCTATCCAGAGCACCTTGTTG 37
69 AAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCT 33
70 GGTTCTCTATCACCACCCCAAGCACCAGCTTCACCGG 37
71 TGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAA 37
72 CTGGTGGACCCAAAGCTCTTGGACCAGCAGCAGGT 35
73 GAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTA 42
74 CCAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTT 41
75 ACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCAT 39
76 CACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGG 37
77 CAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAG 41
78 ACAGCCCAAACCTGATGAACCTTAACTAGGTATGGAGCTTCCT 43
79 GTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAA 41
80 AATCTAACAGTCAACAAAGAGTCCTTCTTCAAACCACCAGCCTTA 45
81 GGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCA 43
82 CGACCACAAGATGGAAAAGCTGGATGACCCCAAGTACCC 39
83 GCTTTTCCATCTTGTGGTCGTTTGAAAGAAGACTCCAGGTACA 43
84 AGCATCTGGTTCCATGAAAAAAATGTACCTGGAGTCTTCTTTCAAA 46
85 TTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCC 43
86 GGAAAAGAAGCTCTGAAAGCAGCGGGAGCCCTAGAAGTGGAGTT 44
87 TGCTTTCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAA 42
88 AACTCTAGAAACTTCCTTCTTCAAGTTTCTACCCGTTTCCAATGGT 46
89 CTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTG 46
90 TTCATTTCCTTCAATCTTGGTGGCAAAGCACAACGCTTACACAG 44
91 CCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCT 42
92 GCATCTCAATACCAACTTGGAACCAGCGGCAGATTCTTGAGAC 43
93 TTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGTACAGTT 44
94 TCTTAAACCACTTGAACCTCAAAGAACTGTACTCGGAAGAAGTCTC 46
95 CTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAA 47
96 ATCTTTATGTTTTGGGGCTTGTTTTTTCTGTTCAATTCGTTACCGT 46
97 AACAAGCCCCAAAACATAAAGATTCAAAAGAAGCCTGGCAAGT 43
98 AGCCTTGTTAATCCTCAATTCAGACTTGCCAGGCTTCTTTTGA 43
99 CTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAA 44
100 ACTTGGAAATAACCTTACACATGTATTCACCAGAATCAGCCAAGG 45
101 TACATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTG 46
102 TGGACTCAACAATTGTAATGTTAGCAGAAGCAGAATCGTTACCCA 45
103 CTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGAC 46
104 ACTTAACCAAGTGAGAAGTACCAGTCGTAGAAGTAGATGTAGCGT 45
105 TGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCT 44
106 AAACATTCACCACCGTTAACACAAAAGGTCTTTTCCTTTTCAGCG 45
107 GTGTTAACGGTGGTGAATGTTTTATGGTTAAGGACTTGTCTAACCC 46
108 GCACTTACACAAGTAACGAGATGGGTTAGACAAGTCCTTAACCATA 46
109 ATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGAT 43
110 CCATGACGTAGTTTTGACATCTATCACCAGTGAATTCGTTTGG 43
111 AGATGTCAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCC 46
112 ATGCGGCCGCTTCTGGCAAAGACAAAAATGGGGTAGAGGTAGAGTAGAAAGAAG 54
<110>Hubei University of Science and Technology
<120>A kind of induced expression of people source polypeptide in pichia yeast
Peptide Seq ID No.1 (rhGGF2)
Mrwrraprrsgrpgpraqrpgsaarsspplpllplllllgtaalapgaaagneaapagasvcyssppsvgsvq elaqraavviegkvhpqrrqqgaldrkaaaaageagawggdreppaagpralgppaeepllaangtvpswptapvps agepgeeapylvkvhqvwavkagglkkdslltvrlgtwghpafpscgrlkedsryiffmepdanstsrapaafrasf ppletgrnlkkevsrvlckrcalpprlkemksqesaagsklvlrcetsseysslrfkwfkngnelnrknkpqnikiq kkpgkselrinkasladsgeymckvisklgndsasanitivesnatststtgtshlvkcaekektfcvnggecfmvk dlsnpsrylckcpneftgdrcqnyvmasfyststpflslpe
Nucleinic acid Seq ID no.1(rhGGF2)
ATGAGATGGAGAAGAGCTCCAAGAAGATCTGGTAGACCAGGTCCAAGAGCACAAAGACCAGGTTCTGCCGCTA GATCTTCTCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACAGCTGCATTGGCTCCAGGTGCTGCCGCT GGCAACGAAGCTGCTCCAGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTGGTTCTGTTCAAGAATTGGC TCAAAGGGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGATAGAAAGGCTG CTGCTGCTGCTGGAGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCAAGAGCTTTAGGTCCA CCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCATCAGCTGGTGA ACCAGGTGAGGAAGCTCCATACTTGGTCAAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAAGGATT CTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCCAGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTCTAGA TACATTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCGCTGCTTTTAGAGCCTCTTTTCCACCATT GGAAACTGGCAGAAACTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTTGCCACCAAGATTGAAGG AAATGAAGTCTCAAGAATCTGCTGCTGGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCCTCTCTG AGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTAAGAACAAGCCACAAAACATCAAGATTCAGAAGAAGCC CGGTAAGTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTGAGTACATGTGCAAAGTTATCAGTAAGC TGGGTAACGATTCTGCTTCTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTACTACTGGTACCTCT CATTTGGTTAAATGTGCTGAGAAGGAAAAAACTTTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACTTGTC TAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGGTGACAGATGCCAGAACTACGTTATGGCATCTT TTTACTCCACTAGTACTCCATTTCTTTCATTGCCTGAA
Peptide Seq ID No.2 (HIS-rhGGF2)
HHHHHHrwrraprrsgrpgpraqrpgsaarsspplpllplllllgtaalapgaaagneaapagasvcysspps vgsvqelaqraavviegkvhpqrrqqgaldrkaaaaageagawggdreppaagpralgppaeepllaangtvpswpt apvpsagepgeeapylvkvhqvwavkagglkkdslltvrlgtwghpafpscgrlkedsryiffmepdanstsrapaa frasfppletgrnlkkevsrvlckrcalpprlkemksqesaagsklvlrcetsseysslrfkwfkngnelnrknkpq nikiqkkpgkselrinkasladsgeymckvisklgndsasanitivesnatststtgtshlvkcaekektfcvngge cfmvkdlsnpsrylckcpneftgdrcqnyvmasfyststpflslpe
Nucleinic acid Seq ID no.2(HIS-rhGGF2)
CATCATCATCATCATCATAGATGGAGAAGAGCTCCAAGAAGATCTGGTAGACCAGGTCCAAGAGCACAAAGAC CAGGTTCTGCCGCTAGATCTTCTCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACAGCTGCATTGGCT CCAGGTGCTGCCGCTGGCAACGAAGCTGCTCCAGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTGGTTC TGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTT TGGATAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCA AGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGT TCCATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTCAAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTG GTTTGAAGAAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCCAGCCTTTCCATCTTGTGGTAGGCTG AAGGAGGATTCTAGATACATTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCGCTGCTTTTAGAGC CTCTTTTCCACCATTGGAAACTGGCAGAAACTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTTGC CACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCTGGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGT GAATACTCCTCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTAAGAACAAGCCACAAAACATCAA GATTCAGAAGAAGCCCGGTAAGTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTGAGTACATGTGCA AAGTTATCAGTAAGCTGGGTAACGATTCTGCTTCTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCT ACTACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACTTTCTGTGTTAACGGTGGTGAATGTTTCAT GGTTAAGGACTTGTCTAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGGTGACAGATGCCAGAACT ACGTTATGGCATCTTTTTACTCCACTAGTACTCCATTTCTTTCATTGCCTGAA
Peptide Seq ID No.3 (rhcGGF2)
Mgneaapagasvcyssppsvgsvqelaqraavviegkvhpqrrqqgaldrkaaaaageagawggdreppaagp ralgppaeepllaangtvpswptapvpsagepgeeapylvkvhqvwavkagglkkdslltvrlgtwghpafpscgrl kedsryiffmepdanstsrapaafrasfppletgrnlkkevsrvlckrcalpprlkemksqesaagsklvlrcetss eysslrfkwfkngnelnrknkpqnikiqkkpgkselrinkasladsgeymckvisklgndsasanitivesnatsts ttgtshlvkcaekektfcvnggecfmvkdlsnpsrylckcpneftgdrcqnyvmasfyststpflslpe
Nucleinic acid Seq ID no.3
ATGGGCAACGAAGCTGCTCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGGTTCTGTTCAAG AATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGATAGA AAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAAGAGCTTT GGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCATCAG CTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAGGTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTTGAAG AAGGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCAGCTTTTCCATCTTGTGGTCGTTTGAAAGAAGA CTCCAGGTACATTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCCCGCTGCTTTCAGAGCTTCTTTTC CACCATTGGAAACGGGTAGAAACTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTGCCACCAAGA TTGAAGGAAATGAAGTCTCAAGAATCTGCCGCTGGTTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGTACAG TTCTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAAAACAAGCCCCAAAACATAAAGATTCAAA AGAAGCCTGGCAAGTCTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAATACATGTGTAAGGTTATT TCCAAGTTGGGTAACGATTCTGCTTCTGCTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGACTGG TACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCTTTTGTGTTAACGGTGGTGAATGTTTTATGGTTAAGG ACTTGTCTAACCCATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGATAGATGTCAAAACTACGTCATG GCTTCTTTCTACTCTACCTCTACCCCATTTTTGTCTTTGCCAGAA
Peptide Seq ID No.4 (HIS-rhcGGF2)
hhhhhhgneaapagasvcyssppsvgsvqelaqraavviegkvhpqrrqqgaldrkaaaaageagawggdrep paagpralgppaeepllaangtvpswptapvpsagepgeeapylvkvhqvwavkagglkkdslltvrlgtwghpafp scgrlkedsryiffmepdanstsrapaafrasfppletgrnlkkevsrvlckrcalpprlkemksqesaagsklvlr cetsseysslrfkwfkngnelnrknkpqnikiqkkpgkselrinkasladsgeymckvisklgndsasanitivesn atststtgtshlvkcaekektfcvnggecfmvkdlsnpsrylckcpneftgdrcqnyvmasfyststpflslpe
Nucleinic acid Seq ID no.4 (HIS-rhcGGF2)
CATCATCATCATCATCATGGCAACGAAGCTGCTCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTG TTGGTTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGGTAAGGTTCATCCACAACGTAGACAACAA GGTGCTCTGGATAGAAAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCTTGGGGTGGTGATAGAGAACCACCTGCTGC TGGTCCAAGAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTAACGGTACTGTTCCATCTTGGCCAACTG CTCCAGTTCCATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAGGTTCATCAGGTTTGGGCTGTTAAG GCTGGTGGTTTGAAGAAGGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCAGCTTTTCCATCTTGTGG TCGTTTGAAAGAAGACTCCAGGTACATTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCCCGCTGCTT TCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAACTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGT GCTTTGCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCTGGTTCCAAGTTGGTATTGAGATGCGAGAC TTCTTCCGAGTACAGTTCTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAAAACAAGCCCCAAA ACATAAAGATTCAAAAGAAGCCTGGCAAGTCTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAATAC ATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTGCTAACATTACAATTGTTGAGTCCAACGCTACATC TACTTCTACGACTGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCTTTTGTGTTAACGGTGGTGAAT GTTTTATGGTTAAGGACTTGTCTAACCCATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGATAGATGT CAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCCCATTTTTGTCTTTGCCAGAA
Sequence Nucleinic acid SEQ ID No.1 amplimers
1 AT CTCGAG AAAAGAGAGGCTGAAGCTATGAGATGGAGAAGAGCTCCAAGAAGATCTGGTAG ACCA 39
2 TGGTCTTTGTGCTCTTGGACCTGGTCTACCAGATCTTCTTGGA 43
3 GTCCAAGAGCACAAAGACCAGGTTCTGCCGCTAGATCTTC 40
4 CAACAATGGCAAAGGTGGAGAAGATCTAGCGGCAGAACC 39
5 TCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACA 43
6 CCTGGAGCCAATGCAGCTGTACCCAACAACAATAATAGTGG 41
7 GCTGCATTGGCTCCAGGTGCTGCCGCTGGCAACGAA 36
8 AACAAACAGAAGCTCCAGCTGGAGCAGCTTCGTTGCCAGCGGCA 44
9 AGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTG 41
10 TGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAGT 43
11 GTTCTGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGA 43
12 CTTTGGGGATGAACCTTACCTTCAATAACAACAGCAGCCCTT 42
13 AGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGA 42
14 GCAGCAGCAGCCTTTCTATCCAAAGCACCCTGTTGTC 37
15 TAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGC 36
16 GTTCTCTATCACCACCCCAAGCACCAGCTTCTCCAGC 37
17 TTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCA 37
18 GCTGGTGGACCTAAAGCTCTTGGACCAGCAGCTGGTG 37
19 AGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTG 40
20 CAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTTCA 42
21 CTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCC 40
22 ACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGGC 37
23 ATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTC 40
24 AGCCCAAACTTGATGAACCTTGACCAAGTATGGAGCTTCCTC 42
25 AAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAG 42
26 CCTAACAGTCAACAAAGAATCCTTCTTCAAACCACCAGCCTTAAC 45
27 AAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCC 44
28 CTACCACAAGATGGAAAGGCTGGATGACCCCAAGTACCCAA 41
29 AGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTCTAGATACA 44
30 GCATCGGGTTCCATGAAAAAAATGTATCTAGAATCCTCCTTCAGC 45
31 TTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCG 45
32 GGAAAAGAGGCTCTAAAAGCAGCGGGAGCTCTAGAAGTAGAGTTA 45
33 CTGCTTTTAGAGCCTCTTTTCCACCATTGGAAACTGGCAGAAA 43
34 ACTCTAGAAACCTCCTTCTTCAAGTTTCTGCCAGTTTCCAATGGT 45
35 CTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTT 45
36 CATTTCCTTCAATCTTGGTGGCAAAGCACATCTCTTGCACAAA 43
37 GCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCT 43
38 CACCTCAAAACCAATTTTGAACCAGCAGCAGATTCTTGAGACTT 44
39 GGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCC 45
40 TCTTAAACCACTTGAATCTCAGAGAGGAGTATTCACTGGAAGTCTCG 47
41 TCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTA 46
42 TTGATGTTTTGTGGCTTGTTCTTACGGTTCAATTCGTTACCGT 43
43 AGAACAAGCCACAAAACATCAAGATTCAGAAGAAGCCCGGTAA 43
44 GCCTTGTTAATTCTCAATTCAGACTTACCGGGCTTCTTCTGAATC 45
45 GTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTG 44
46 TTACTGATAACTTTGCACATGTACTCACCAGAGTCAGCCAAAGAA 45
47 AGTACATGTGCAAAGTTATCAGTAAGCTGGGTAACGATTCTGCTT 45
48 GACTCAACGATAGTAATGTTAGCAGAAGCAGAATCGTTACCCAGC 45
49 CTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTAC 46
50 AACCAAATGAGAGGTACCAGTAGTAGAAGTGGAGGTTGCGTTA 43
51 ACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACT 45
52 TTCACCACCGTTAACACAGAAAGTTTTTTCCTTCTCAGCACATTT 45
53 TTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACTTGTC 44
54 GCACAAGTACCTAGATGGGTTAGACAAGTCCTTAACCATGAAACA 45
55 TAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGG 45
56 CGTAGTTCTGGCATCTGTCACCTGTAAATTCGTTTGGACACTT 43
57 TGACAGATGCCAGAACTACGTTATGGCATCTTTTTACTCCACTAG 45
58 AT GCGGCCGC TTCAGGCAATGAAAGAAATGGAGTACTAGTGGAGTAAAAAGATGCCA TAA 60
Sequence Nucleinic acid SEQ ID No.2 amplimers
59 AT CTCGAG AAAAGAGAGGCTGAAGCTCATCATCATCATCATCAT 44
60 CATCATCATCATCATCATAGATGGAGAAGAGCT CCAAGAAGATCTGGTAGACCA 54
2 TGGTCTTTGTGCTCTTGGACCTGGTCTACCAGATCTTCTTGGA 43
3 GTCCAAGAGCACAAAGACCAGGTTCTGCCGCTAGATCTTC 40
4 CAACAATGGCAAAGGTGGAGAAGATCTAGCGGCAGAACC 39
5 TCCACCTTTGCCATTGTTGCCACTATTATTGTTGTTGGGTACA 43
6 CCTGGAGCCAATGCAGCTGTACCCAACAACAATAATAGTGG 41
7 GCTGCATTGGCTCCAGGTGCTGCCGCTGGCAACGAA 36
8 AACAAACAGAAGCTCCAGCTGGAGCAGCTTCGTTGCCAGCGGCA 44
9 AGCTGGAGCTTCTGTTTGTTACTCTTCTCCACCATCTGTTG 41
10 TGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAGT 43
11 GTTCTGTTCAAGAATTGGCTCAAAGGGCTGCTGTTGTTATTGA 43
12 CTTTGGGGATGAACCTTACCTTCAATAACAACAGCAGCCCTT 42
13 AGGTAAGGTTCATCCCCAAAGAAGACAACAGGGTGCTTTGGA 42
14 GCAGCAGCAGCCTTTCTATCCAAAGCACCCTGTTGTC 37
15 TAGAAAGGCTGCTGCTGCTGCTGGAGAAGCTGGTGC 36
16 GTTCTCTATCACCACCCCAAGCACCAGCTTCTCCAGC 37
17 TTGGGGTGGTGATAGAGAACCACCAGCTGCTGGTCCA 37
18 GCTGGTGGACCTAAAGCTCTTGGACCAGCAGCTGGTG 37
19 AGAGCTTTAGGTCCACCAGCTGAAGAACCATTGTTGGCTG 40
20 CAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTTCA 42
21 CTAACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCC 40
22 ACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGGC 37
23 ATCAGCTGGTGAACCAGGTGAGGAAGCTCCATACTTGGTC 40
24 AGCCCAAACTTGATGAACCTTGACCAAGTATGGAGCTTCCTC 42
25 AAGGTTCATCAAGTTTGGGCTGTTAAGGCTGGTGGTTTGAAG 42
26 CCTAACAGTCAACAAAGAATCCTTCTTCAAACCACCAGCCTTAAC 45
27 AAGGATTCTTTGTTGACTGTTAGGTTGGGTACTTGGGGTCATCC 44
28 CTACCACAAGATGGAAAGGCTGGATGACCCCAAGTACCCAA 41
29 AGCCTTTCCATCTTGTGGTAGGCTGAAGGAGGATTCTAGATACA 44
30 GCATCGGGTTCCATGAAAAAAATGTATCTAGAATCCTCCTTCAGC 45
31 TTTTTTTCATGGAACCCGATGCTAACTCTACTTCTAGAGCTCCCG 45
32 GGAAAAGAGGCTCTAAAAGCAGCGGGAGCTCTAGAAGTAGAGTTA 45
33 CTGCTTTTAGAGCCTCTTTTCCACCATTGGAAACTGGCAGAAA 43
34 ACTCTAGAAACCTCCTTCTTCAAGTTTCTGCCAGTTTCCAATGGT 45
35 CTTGAAGAAGGAGGTTTCTAGAGTTTTGTGCAAGAGATGTGCTTT 45
36 CATTTCCTTCAATCTTGGTGGCAAAGCACATCTCTTGCACAAA 43
37 GCCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCTGCT 43
38 CACCTCAAAACCAATTTTGAACCAGCAGCAGATTCTTGAGACTT 44
39 GGTTCAAAATTGGTTTTGAGGTGCGAGACTTCCAGTGAATACTCC 45
40 TCTTAAACCACTTGAATCTCAGAGAGGAGTATTCACTGGAAGTCTCG 47
41 TCTCTGAGATTCAAGTGGTTTAAGAACGGTAACGAATTGAACCGTA 46
42 TTGATGTTTTGTGGCTTGTTCTTACGGTTCAATTCGTTACCGT 43
43 AGAACAAGCCACAAAACATCAAGATTCAGAAGAAGCCCGGTAA 43
44 GCCTTGTTAATTCTCAATTCAGACTTACCGGGCTTCTTCTGAATC 45
45 GTCTGAATTGAGAATTAACAAGGCTTCTTTGGCTGACTCTGGTG 44
46 TTACTGATAACTTTGCACATGTACTCACCAGAGTCAGCCAAAGAA 45
47 AGTACATGTGCAAAGTTATCAGTAAGCTGGGTAACGATTCTGCTT 45
48 GACTCAACGATAGTAATGTTAGCAGAAGCAGAATCGTTACCCAGC 45
49 CTGCTAACATTACTATCGTTGAGTCTAACGCAACCTCCACTTCTAC 46
50 AACCAAATGAGAGGTACCAGTAGTAGAAGTGGAGGTTGCGTTA 43
51 ACTGGTACCTCTCATTTGGTTAAATGTGCTGAGAAGGAAAAAACT 45
52 TTCACCACCGTTAACACAGAAAGTTTTTTCCTTCTCAGCACATTT 45
53 TTCTGTGTTAACGGTGGTGAATGTTTCATGGTTAAGGACTTGTC 44
54 GCACAAGTACCTAGATGGGTTAGACAAGTCCTTAACCATGAAACA 45
55 TAACCCATCTAGGTACTTGTGCAAGTGTCCAAACGAATTTACAGG 45
56 CGTAGTTCTGGCATCTGTCACCTGTAAATTCGTTTGGACACTT 43
57 TGACAGATGCCAGAACTACGTTATGGCATCTTTTTACTCCACTAG 45
58 AT GCGGCCGC TTCAGGCAATGAAAGAAATGGAGTACTAGTGGAGTAAAAAGATGCCA TAA 60
Sequence Nucleinic acid SEQ ID No.3 amplimers
61 AT CTCGAG AAAAGAGAGGCTGAAGCTATGGGCAACGAAGCTGC 41 62 CAGAGGCACCAGCTGGAGCAGCTTCGTTGCCCAT 34 63 TCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGG 45 64 TTTGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAG 44 65 TTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGG 45 66 TCTACGTTGTGGATGAACCTTACCTTCAATAACAACAGCAGCTC 44 67 TAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGATAGA 43 68 CAGCAGCAGCAGCCTTTCTATCCAGAGCACCTTGTTG 37 69 AAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCT 33 70 GGTTCTCTATCACCACCCCAAGCACCAGCTTCACCGG 37 71 TGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAA 37 72 CTGGTGGACCCAAAGCTCTTGGACCAGCAGCAGGT 35 73 GAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTA 42 74 CCAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTT 41 75 ACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCAT 39 76 CACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGG 37 77 CAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAG 41 78 ACAGCCCAAACCTGATGAACCTTAACTAGGTATGGAGCTTCCT 43 79 GTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAA 41 80 AATCTAACAGTCAACAAAGAGTCCTTCTTCAAACCACCAGCCTTA 45 81 GGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCA 43 82 CGACCACAAGATGGAAAAGCTGGATGACCCCAAGTACCC 39 83 GCTTTTCCATCTTGTGGTCGTTTGAAAGAAGACTCCAGGTACA 43 84 AGCATCTGGTTCCATGAAAAAAATGTACCTGGAGTCTTCTTTCAAA 46 85 TTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCC 43 86 GGAAAAGAAGCTCTGAAAGCAGCGGGAGCCCTAGAAGTGGAGTT 44 87 TGCTTTCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAA 42 88 AACTCTAGAAACTTCCTTCTTCAAGTTTCTACCCGTTTCCAATGGT 46
89 CTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTG 46
80 TTCATTTCCTTCAATCTTGGTGGCAAAGCACAACGCTTACACAG 44 91 CCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCT 42 92 GCATCTCAATACCAACTTGGAACCAGCGGCAGATTCTTGAGAC 43 93 TTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGTACAGTT 44 94 TCTTAAACCACTTGAACCTCAAAGAACTGTACTCGGAAGAAGTCTC 46 95 CTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAA 47 96 ATCTTTATGTTTTGGGGCTTGTTTTTTCTGTTCAATTCGTTACCGT 46 97 AACAAGCCCCAAAACATAAAGATTCAAAAGAAGCCTGGCAAGT 43 98 AGCCTTGTTAATCCTCAATTCAGACTTGCCAGGCTTCTTTTGA 43 99 CTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAA 44 100 ACTTGGAAATAACCTTACACATGTATTCACCAGAATCAGCCAAGG 45 101 TACATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTG 46 102 TGGACTCAACAATTGTAATGTTAGCAGAAGCAGAATCGTTACCCA 45 103 CTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGAC 46 104 ACTTAACCAAGTGAGAAGTACCAGTCGTAGAAGTAGATGTAGCGT 45 105 TGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCT 44 106 AAACATTCACCACCGTTAACACAAAAGGTCTTTTCCTTTTCAGCG 45 107 GTGTTAACGGTGGTGAATGTTTTATGGTTAAGGACTTGTCTAACCC 46 108 GCACTTACACAAGTAACGAGATGGGTTAGACAAGTCCTTAACCATA 46 109 ATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGAT 43 110 CCATGACGTAGTTTTGACATCTATCACCAGTGAATTCGTTTGG 43 111 AGATGTCAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCC 46 112 AT GCGGCCGC TTCTGGCAAAGACAAAAATGGGGTAGAGGTAGAGTAGAA AGAAG 54
Sequence Nucleinic acid SEQ ID No.4 amplimers
113 AT CTCGAG AAAAGAGAGGCTGAAGCTCATCATCATCATCATCATATGGGCAACGAA GCTGC 59
62 CAGAGGCACCAGCTGGAGCAGCTTCGTTGCCCAT 34 63 TCCAGCTGGTGCCTCTGTTTGTTACTCTTCTCCACCATCTGTTGG 45 64 TTTGAGCCAATTCTTGAACAGAACCAACAGATGGTGGAGAAGAG 44 65 TTCTGTTCAAGAATTGGCTCAAAGAGCTGCTGTTGTTATTGAAGG 45 66 TCTACGTTGTGGATGAACCTTACCTTCAATAACAACAGCAGCTC 44 67 TAAGGTTCATCCACAACGTAGACAACAAGGTGCTCTGGATAGA 43 68 CAGCAGCAGCAGCCTTTCTATCCAGAGCACCTTGTTG 37 69 AAGGCTGCTGCTGCTGCCGGTGAAGCTGGTGCT 33 70 GGTTCTCTATCACCACCCCAAGCACCAGCTTCACCGG 37 71 TGGGGTGGTGATAGAGAACCACCTGCTGCTGGTCCAA 37 72 CTGGTGGACCCAAAGCTCTTGGACCAGCAGCAGGT 35 73 GAGCTTTGGGTCCACCAGCTGAAGAACCATTGTTGGCTGCTA 42 74 CCAAGATGGAACAGTACCGTTAGCAGCCAACAATGGTTCTT 41 75 ACGGTACTGTTCCATCTTGGCCAACTGCTCCAGTTCCAT 39 76 CACCTGGTTCACCAGCTGATGGAACTGGAGCAGTTGG 37 77 CAGCTGGTGAACCAGGTGAGGAAGCTCCATACCTAGTTAAG 41 78 ACAGCCCAAACCTGATGAACCTTAACTAGGTATGGAGCTTCCT 43 79 GTTCATCAGGTTTGGGCTGTTAAGGCTGGTGGTTTGAAGAA 41 80 AATCTAACAGTCAACAAAGAGTCCTTCTTCAAACCACCAGCCTTA 45 81 GGACTCTTTGTTGACTGTTAGATTGGGTACTTGGGGTCATCCA 43 82 CGACCACAAGATGGAAAAGCTGGATGACCCCAAGTACCC 39 83 GCTTTTCCATCTTGTGGTCGTTTGAAAGAAGACTCCAGGTACA 43 84 AGCATCTGGTTCCATGAAAAAAATGTACCTGGAGTCTTCTTTCAAA 46 85 TTTTTTTCATGGAACCAGATGCTAACTCCACTTCTAGGGCTCC 43 86 GGAAAAGAAGCTCTGAAAGCAGCGGGAGCCCTAGAAGTGGAGTT 44 87 TGCTTTCAGAGCTTCTTTTCCACCATTGGAAACGGGTAGAAA 42 88 AACTCTAGAAACTTCCTTCTTCAAGTTTCTACCCGTTTCCAATGGT 46
89 CTTGAAGAAGGAAGTTTCTAGAGTTCTGTGTAAGCGTTGTGCTTTG 46
90 TTCATTTCCTTCAATCTTGGTGGCAAAGCACAACGCTTACACAG 44 91 CCACCAAGATTGAAGGAAATGAAGTCTCAAGAATCTGCCGCT 42 92 GCATCTCAATACCAACTTGGAACCAGCGGCAGATTCTTGAGAC 43 93 TTCCAAGTTGGTATTGAGATGCGAGACTTCTTCCGAGTACAGTT 44 94 TCTTAAACCACTTGAACCTCAAAGAACTGTACTCGGAAGAAGTCTC 46 95 CTTTGAGGTTCAAGTGGTTTAAGAACGGTAACGAATTGAACAGAAAA 47 96 ATCTTTATGTTTTGGGGCTTGTTTTTTCTGTTCAATTCGTTACCGT 46 97 AACAAGCCCCAAAACATAAAGATTCAAAAGAAGCCTGGCAAGT 43 98 AGCCTTGTTAATCCTCAATTCAGACTTGCCAGGCTTCTTTTGA 43 99 CTGAATTGAGGATTAACAAGGCTTCCTTGGCTGATTCTGGTGAA 44 100 ACTTGGAAATAACCTTACACATGTATTCACCAGAATCAGCCAAGG 45 101 TACATGTGTAAGGTTATTTCCAAGTTGGGTAACGATTCTGCTTCTG 46 102 TGGACTCAACAATTGTAATGTTAGCAGAAGCAGAATCGTTACCCA 45 103 CTAACATTACAATTGTTGAGTCCAACGCTACATCTACTTCTACGAC 46 104 ACTTAACCAAGTGAGAAGTACCAGTCGTAGAAGTAGATGTAGCGT 45 105 TGGTACTTCTCACTTGGTTAAGTGCGCTGAAAAGGAAAAGACCT 44 106 AAACATTCACCACCGTTAACACAAAAGGTCTTTTCCTTTTCAGCG 45 107 GTGTTAACGGTGGTGAATGTTTTATGGTTAAGGACTTGTCTAACCC 46 108 GCACTTACACAAGTAACGAGATGGGTTAGACAAGTCCTTAACCATA 46 109 ATCTCGTTACTTGTGTAAGTGCCCAAACGAATTCACTGGTGAT 43 110 CCATGACGTAGTTTTGACATCTATCACCAGTGAATTCGTTTGG 43 111 AGATGTCAAAACTACGTCATGGCTTCTTTCTACTCTACCTCTACCC 46 112 AT GCGGCCGC TTCTGGCAAAGACAAAAATGGGGTAGAGGTAGAGTAGAA AGAAG 54

Claims (6)

1. a kind of induced expression of people source polypeptide in pichia yeast, its feature are, the coding that codon is optimized is pre- Anti- and treatment cardiomyopathy people source polypeptide rhNRG-1 β nucleotide construction enters pichia yeast expression vector, is then transferred to Bi Shi ferment Mother carries out induced expression, obtains described polypeptide;
RhNRG-1 β include total length people source polypeptide rhGGF2, rhGGF2 part of polypeptide rhcGGF2, rhGGF2 are entered by HIS Polypeptide HIS-rhGGF2 after the line flag and polypeptide HIS-rhcGGF2 after rhcGGF2 is marked by HIS;
It is according to total length people source polypeptide rhGGF2 amino acid sequence and pichia yeast codon-bias, codon is excellent The nucleotide construction of encoding human source polypeptide rhGGF2 after change enters in Yeast expression carrier, or the volume after codon is optimized Code people source polypeptide rhGGF2 nucleotides is connected with HIS (6 × his) label, is then transferred to pichia yeast, is sieved by positive colony Choosing, the high expression bacterial strain of rhGGF2 high expression bacterial strain and HIS-rhGGF2 is obtained respectively.
Part of polypeptide rhcGGF2 is according to people source rhGGF2 polypeptid acid sequences, removes rhGGF2 signal peptide sequences, obtains institute RhcGGF2 is stated, then according to pichia yeast codon-bias, the encoding human source polypeptide after codon is optimized RhcGGF2 nucleotide construction enters in Yeast expression carrier, or the encoding human source polypeptide rhcGGF2 after codon is optimized Nucleotides be connected with HIS (6 × his) label, be then transferred to pichia yeast, screened by positive colony, obtained respectively The high expression bacterial strain of rhcGGF2 high expression bacterial strain and HIS-rhcGGF2.
A kind of 2. induced expression of people source polypeptide in pichia yeast according to claim 1, it is characterised in that the coding RhGGF2 nucleotide sequence such as Nucleinic acid SEQ ID NO:1, corresponding peptide sequence such as Peptide No.1; The nucleotide sequence such as Nucleinic acid SEQ ID NO of the coding HIS-rhGGF2:2, corresponding peptide sequence is such as Peptide No.2;The nucleotide sequence such as Nucleinic acid SEQ ID NO of the coding rhcGGF2:3, it is corresponding more Peptide sequence such as Peptide No.3;The nucleotide sequence such as Nucleinic acid SEQ ID of the coding HIS-rhcGGF2 NO:4, corresponding peptide sequence such as Peptide No.4.
3. induced expression of a kind of people source polypeptide according to claim 1 or claim 2 in pichia yeast, it is characterised in that described Pichia yeast inducible expression carrier is pHKY01.Pichia yeast inducible expression carrier can select arbitrary pichia yeast induction table Up to carrier, the present invention can be realized, is optimal using pHKY01.
4. induced expression of a kind of people source polypeptide according to claim 1 or claim 2 in pichia yeast, it is characterised in that described Pichia yeast is pichia yeast GS115.Pichia yeast can also select arbitrary pichia yeast bacterial strain, can realize this hair It is bright.
5. induced expression of a kind of people source polypeptide according to claim 1 or claim 2 in pichia yeast, it is characterised in that described In pichia yeast after induced expression, its purification process is isolated and purified rhGGF2 and rhcGGF2 polypeptides using ion-exchange chromatography The albumen.
6. induced expression of a kind of people source polypeptide according to claim 1 or claim 2 in pichia yeast, it is characterised in that described For HIS-rhGGF2 and HIS-rhcGGF2 polypeptides in pichia yeast after induced expression, its purification process uses Ni- nickel affinity purifications Column chromatography method purifies the albumen.
CN201710738272.5A 2017-08-25 2017-08-25 A kind of induced expression of people source polypeptide in pichia yeast Pending CN107446945A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201710738272.5A CN107446945A (en) 2017-08-25 2017-08-25 A kind of induced expression of people source polypeptide in pichia yeast

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201710738272.5A CN107446945A (en) 2017-08-25 2017-08-25 A kind of induced expression of people source polypeptide in pichia yeast

Publications (1)

Publication Number Publication Date
CN107446945A true CN107446945A (en) 2017-12-08

Family

ID=60493224

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201710738272.5A Pending CN107446945A (en) 2017-08-25 2017-08-25 A kind of induced expression of people source polypeptide in pichia yeast

Country Status (1)

Country Link
CN (1) CN107446945A (en)

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101336251A (en) * 2005-12-02 2008-12-31 上海泽生科技开发有限公司 Neuregulin variants and methods of screening and using thereof
US20140086897A1 (en) * 2012-09-26 2014-03-27 Morehouse School Of Medicine Chimeric neuregulins and method of making and use thereof
CN106636175A (en) * 2016-09-30 2017-05-10 湖北科技学院 Induced expression method of cell injury repair protein in pichia pastoris and purification method and application of cell injury repair protein

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101336251A (en) * 2005-12-02 2008-12-31 上海泽生科技开发有限公司 Neuregulin variants and methods of screening and using thereof
US20140086897A1 (en) * 2012-09-26 2014-03-27 Morehouse School Of Medicine Chimeric neuregulins and method of making and use thereof
CN106636175A (en) * 2016-09-30 2017-05-10 湖北科技学院 Induced expression method of cell injury repair protein in pichia pastoris and purification method and application of cell injury repair protein

Similar Documents

Publication Publication Date Title
TW211585B (en)
CN104548137B (en) A kind of medical composition and its use of the inhibitor containing lncRNA
CN107019794A (en) Agent is applied for treating or preventing the neuregulin of heart failure or the therapeutic of its subsequence
CN101134105B (en) Pharmaceutical composition containing recombination human pancreatic kininogenase for treating and/or preventing cerebral infarction
CN108379275B (en) Lysophosphatidic acid, lysophosphatidic acid receptor 3, and use of lysophosphatidic acid receptor 3 agonist
CN105732789A (en) Haemadipsa sylvestris analgesic peptide mh2620 and gene and application thereof
CN103215225A (en) Construction method of glial cell line-derived neurotrophic factor gene-modified embryo neural stem cell
CN107778362A (en) It is a kind of to be used to suppress polypeptide of OSCC migration and invasive ability and application thereof
CN112851791B (en) Novel FGF analogue for resisting metabolic disorder and application thereof
CN107385033B (en) PiRNA-5938 and application of antisense nucleic acid thereof in diagnosis and treatment of ischemic heart diseases
CN108410893A (en) A kind of tumour cell specific response expression vector started by NF- κ B and its expression product and application
CN105194660B (en) Ubiquitin specific proteinase 18(USP18)Function and application in myocardial hypertrophy is treated
CN102921021B (en) MiRNA-361 (micro-ribonucleic acid-361) and application of antisense nucleotide thereof
CN107446945A (en) A kind of induced expression of people source polypeptide in pichia yeast
CN1978466B (en) Transduction peptide-human brain-derived neurotrophic factor fusion protein and its use
CN101897953B (en) Non-invasive high-penetrability epidermal growth factor and application thereof
CN110437311A (en) A kind of polypeptide and its application
CN102266570A (en) New application of miRNA-484, pharmaceutical composition containing miRNA-484 and use thereof
CN104524599A (en) Antisense nucleotide MiRNA-532 containing pharmaceutical composition and application thereof
CN108187029A (en) Leukocytic immunity globulin sample receptor subfamily B member 4 is in the application for preparing prevention, alleviating and/or treat myocardial hypertrophy drug
CN106636175A (en) Induced expression method of cell injury repair protein in pichia pastoris and purification method and application of cell injury repair protein
CN114432332A (en) Application of circUTRN in preparation of medicine for treating heart failure, recombinant vector and medicine for treating heart failure
CN101444629B (en) Non-injection gene therapy medicine and medicine box thereof
CN105315359A (en) Deletion type recombinant human mesencephalic astrocyte-derived neurotrophic factor
CN109839508A (en) Application of the Rbm24-S181 site phosphorylation as stress class disease and the marker of related cardiac conditions medication

Legal Events

Date Code Title Description
PB01 Publication
PB01 Publication
SE01 Entry into force of request for substantive examination
SE01 Entry into force of request for substantive examination
WD01 Invention patent application deemed withdrawn after publication
WD01 Invention patent application deemed withdrawn after publication

Application publication date: 20171208