Conjugates | AlkalinePhosphatase,APC,ATTO390,ATTO488,ATTO565,ATTO594,ATTO633,ATTO655,ATTO680,ATTO700,Biotin,FITC,HRP,PE/ATTO594,PerCP,RPE,Streptavidin,Unconjugated
PerCP | Overview:- Peridinin-Chlorophyll-ProteinComplex
- Smallphycobiliprotein
- Isolatedfromredalgae
- Largestokesshift(195nm)
- MolecularWeight:35kDa
PerCPDatasheet | | OpticalProperties: λex =482nm λem=677nm εmax=1.96x106 Laser =488nm PE/ATTO594 | PE/ATTO594isatandemconjugate,wherePEisexcitedat535nmandtransfersenergytoATTO594viaFRET(fluorescenceresonanceenergytransfer),whichemitsat627nm. | Overview:- Highfluorescenceyield
- HighphotostABIlity
- Veryhydrophilic
- Excellentsolubilityinwater
- Verylittleaggregation
PE/ATTO594Datasheet | | OpticalProperties: λex =535nm λem =627 nm Laser = 488to561nm FITC(Fluorescein) | Overview:- Excellentfluorescencequantumyield
- Highrateofphotobleaching
- Goodsolubilityinwater
- Broademissionspectrum
- pHdependentspectra
- Molecularformula:C20H12O5
- Molarmass:332.3g/mol
FITC-Fluorescent-conjugate | | OpticalProperties: λex =494 nm λem=520 nm εmax=7.3×104 Φf= 0.92 τfl =5.0ns Brightness= 67.2 Laser = 488 nm Filterset = FITC ATTO700 | Overview:- Highfluorescenceyield
- Excellentthermalandphotostability
- Quenchedbyelectrondonors
- Veryhydrophilic
- Goodsolubilityinpolarsolvents
- Zwitterionicdye
- MolarMass:575g/mol
ATTO700Datasheet | | OpticalProperties: λex =700 nm λem=719nm εmax=1.25×105 Φf= 0.25 τfl =1.6ns Brightness= 31.3 Laser =676nm Filterset =Cy®5.5 ATTO680 | Overview:- Highfluorescenceyield
- Excellentthermalandphotostability
- Quenchedbyelectrondonors
- Veryhydrophilic
- Goodsolubilityinpolarsolvents
- Zwitterionicdye
- MolarMass:631g/mol
ATTO680Datasheet | | OpticalProperties: λex =680nm λem=700 nm εmax=1.25×105 Φf= 0.30 τfl =1.7ns Brightness=37.5 Laser =633 –676nm Filterset =Cy®5.5 ATTO655 | Overview:- Highfluorescenceyield
- Highthermalandphotostability
- Excellentozoneresistance
- Quenchedbyelectrondonors
- Veryhydrophilic
- Goodsolubilityinpolarsolvents
- Zwitterionicdye
- MolarMass:634g/mol
ATTO655Datasheet | | OpticalProperties: λex =663nm λem=684nm εmax=1.25×105 Φf= 0.30 τfl =1.8ns Brightness= 37.5 Laser =633 –647nm Filterset =Cy®5 ATTO633 | Overview:- Highfluorescenceyield
- Highthermalandphotostability
- Moderatelyhydrophilic
- Goodsolubilityinpolarsolvents
- StableatpH4–11
- Cationicdye,perchloratesalt
- MolarMass:652.2g/mol
ATTO633Datasheet | | OpticalProperties: λex =629nm λem=657nm εmax=1.3×105 Φf= 0.64 τfl =3.2ns Brightness=83.2 Laser =633 nm Filterset =Cy®5 ATTO594 | Overview:- Highfluorescenceyield
- Highphotostability
- Veryhydrophilic
- Excellentsolubilityinwater
- Verylittleaggregation
- Newdyewithnetchargeof-1
- MolarMass:1137g/mol
ATTO594Datasheet | | OpticalProperties: λex =601 nm λem=627nm εmax=1.2×105 Φf= 0.85 τfl =3.5ns Brightness=102 Laser =594nm Filterset =TexasRed® ATTO565 | Overview:- Highfluorescenceyield
- Highthermalandphotostability
- Goodsolubilityinpolarsolvents
- Excellentsolubilityinwater
- Verylittleaggregation
- Rhodaminedyederivative
- MolarMass:611g/mol
ATTO565Datasheet | | OpticalProperties: λex =563nm λem=592nm εmax=1.2×105 Φf= 0.9 τfl =3.4n Brightness=10 Laser =532nm Filterset = TRITC ATTO488 | Overview:- Highfluorescenceyield
- Highphotostability
- Veryhydrophilic
- Excellentsolubilityinwater
- Verylittleaggregation
- Newdyewithnetchargeof-1
- MolarMass:804g/mol
ATTO488Datasheet | | OpticalProperties: λex =501nm λem=523nm εmax=9.0×104 Φf= 0.80 τfl =4.1ns Brightness= 72 Laser = 488 nm Filterset = FITC ATTO390 | Overview:- Highfluorescenceyield
- LargeStokes-shift(89nm)
- Goodphotostability
- Moderatelyhydrophilic
- Goodsolubilityinpolarsolvents
- Coumarinderivate,uncharged
- Lowmolarmass:343.42g/mol
ATTO390Datasheet | | OpticalProperties: λex =390nm λem=479nm εmax=2.4×104 Φf= 0.90 τfl =5.0ns Brightness= 21.6 Laser =365or405nm APC(Allophycocyanin) | Overview:- Highquantumyield
- Largephycobiliprotein
- 6chromophorespermolecule
- Isolatedfromredalgae
- MolecularWeight:105kDa
APCDatasheet | | OpticalProperties: λex =650nm λem=660nm εmax=7.0×105 Φf= 0.68 Brightness= 476 Laser =594or633 nm Filterset =Cy®5 StreptavidinProperties: - Homo-tetramericproteinpurifiedfromStreptomycesavidiniiwhichbindsfourbiotinmoleculeswithextremelyhighaffinity
- Molecularweight:53kDa
- Formula:C10H16N2O3S
- Applications:Westernblot,immunohistochemistry,andELISA
StreptavidinDatasheet BiotinProperties: - BindstetramericavidinproteinsincludingStreptavidinandneuravidinwithveryhighaffinity
- Molarmass:244.31g/mol
- Formula:C10H16N2O3S
- Applications:Westernblot,immunohistochemistry,andELISA
BiotinDatasheet HRP(HorserADIshperoxidase)Properties: - Enzymaticactivityisusedtoamplifyweaksignalsandincreasevisibilityofatarget
- Readilycombineswithhydrogenperoxide(H2O2)toformHRP-H2O2complexwhichcanoxidizevarioushydrogendonors
- Catalyzestheconversionof:
- Chromogenicsubstrates(e.g.TMB,DAB,ABTS)intocolouredproducts
- Chemiluminescentsubstrates(e.g.luminolandisoluminol)intolightemittingproductsviaenhancedchemiluminescence(ECL)
- Fluorogenicsubstrates(e.g.tyramine,homovanillicacid,and4-hydroxyphenylaceticacid)intofluorescentproducts
- Highturnoverrateenablesrapidgenerationofastrongsignal
- 44kDaglycoprotein
- Extinctioncoefficient:100(403nm)
- Applications:Westernblot,immunohistochemistry,andELISA
HRPDatasheet AP(AlkalinePhosphatase)Properties: - Broadenzymaticactivityforphosphateestersofalcohols,amines,pyrophosphate,andphenols
- Commonlyusedtodephosphorylatethe5’-terminiofDNAandRNAtopreventself-ligation
- Catalyzestheconversionof:
- Chromogenicsubstrates(e.g.pNPP,naphtholAS-TRphosphate,BCIP)intocolouredproducts
- Fluorogenicsubstrates(e.g.4-methylumbelliferylphosphate)intofluorescentproducts
- Molecularweight:140kDa
- Applications:Westernblot,immunohistochemistry,andELISA
APDatasheet R-PE(R-Phycoerythrin) | Overview:- Broadexcitationspectrum
- Highquantumyield
- Photostable
- Memberofthephycobiliproteinfamily
- Isolatedfromredalgae
- Excellentsolubilityinwater
- MolecularWeight:250kDa
R-PEDatasheet | | OpticalProperties: λex =565nm λem=575nm εmax=2.0×106 Φf= 0.84 Brightness=1.68x103 Laser = 488to561nm Filterset = TRITC ProductImagesImmunohistochemistryanalysisusingMouseAnti-Hsp70MonoclonalAntibody,CloneC92(SMC-100).Tissue:coloncarcinoma.Species:Mouse.Fixation:Formalin.PrimaryAntibody:MouseAnti-Hsp70MonoclonalAntibody(SMC-100)at1:10000for12hoursat4°C.SecondaryAntibody:BiotinGoatAnti-Mouseat1:2000for1houratRT.Counterstain:MayerHematoxylin(purple/blue)nuclearstainat200µlfor2minutesatRT.Localization:Inflammatorycells.Magnification:40x. Immunocytochemistry/ImmunofluorescenceanalysisusingMouseAnti-Hsp70MonoclonalAntibody,CloneC92(SMC-100).Tissue:HeatShockedMelanomacells.Species:Mouse.Fixation:Formalin.PrimaryAntibody:MouseAnti-Hsp70MonoclonalAntibody(SMC-100)at1:1000for16hoursatRT.SecondaryAntibody:BiotinGoatAnti-Mouse.Courtesyof:Dr.EwaMalusecka,MariaSklodowska-CurieMemorialCancerCeterandInst.OfOncology,Poland. ImmunohistochemistryanalysisusingMouseAnti-Hsp70MonoclonalAntibody,CloneC92(SMC-100).Tissue:coloncarcinoma.Species:Human.Fixation:Formalin.PrimaryAntibody:MouseAnti-Hsp70MonoclonalAntibody(SMC-100)at1:10000for12hoursat4°C.SecondaryAntibody:BiotinGoatAnti-Mouseat1:2000for1houratRT.Counterstain:MayerHematoxylin(purple/blue)nuclearstainat200µlfor2minutesatRT.Localization:Inflammatorycells.Magnification:40x. WesternBlotanalysisofHumancelllysatesfromvariouscelllinesshowingdetectionofHsp70proteinusingMouseAnti-Hsp70MonoclonalAntibody,CloneC92(SMC-100).Load:15µgprotein.Block:1.5%BSAfor30minutesatRT.PrimaryAntibody:MouseAnti-Hsp70MonoclonalAntibody(SMC-100)at1:1000for2hoursatRT.SecondaryAntibody:SheepAnti-MouseIgG:HRPfor1houratRT. FluorescenceActivatedCellSortinganalysisusingMouseAnti-Hsp70:FITCMonoclonalAntibody,CloneC92(SMC-100).Tissue:HeatShockedCD3+CD8+Tcells.Species:Mouse.PrimaryAntibody:MouseAnti-Hsp70:FITCMonoclonalAntibody(SMC-100)at1:1000.Courtesyof:CherylCameron,VaccineandGeneTherapyInstit.Florida. ProductCitations(56)WesternBlotAbrogationofheatshockfactor1(Hsf1)phosphorylationderegulatesitsactivityandlowersactivationthreshold,leadingtoobesityinmice. Jin,X.,Qiao,A.,Moskophidis,D.andMivechi,N.F.(2017)JBiolChem.[Epubaheadofprint]. PubMedID:28724629ReactivityMouseApplications:WesternBlot ThetranscriptionalregulatorofthechaperoneresponseHSF1controlshepaticbioenergeticsandproteinhomeostasis. Qiao,A.,Jin,X.,Pang,J.,Moskophidis,D.andMivechi,N.f.(2017)JCellBiol.216(3):723-741. PubMedID:28183717ReactivityMouseApplications:WesternBlot TRIM32-Cytoplasmic-BodyFormationIsanATP-ConsumingProcessStimulatedbyHSP70inCells. Kawaguchi,Y.etal.(2017)PLoSOne.12(1):e0169436. PubMedID:28052117ReactivityHumanApplications:WesternBlot Heatshockprotein90ensuresefficientmumpsvirusreplicationbyassistingwithviralpolymerasecomplexformation Katoh,H.etal.(2017)JVirol.pii:JVI.02220-16. PubMedID:28053100ReactivityHumanApplications:WesternBlot SenkyunolideIattenuatesoxygen-glucosedeprivation/reoxygenation-inducedinflammationinmicroglialcells. Hu,Y.Y.etal.(2016)BrainRes.1649(PtA):123-131. PubMedID:27524398ReactivityMouseApplications:WesternBlot EffectsofLong-TermExposureto60GHzMillimeter-WavelengthRadiationontheGenotoxicityandHeatShockProtein(Hsp)ExpressionofCellsDerivedfromHumanEye. Koyama,S.etal.(2016)IntJEnvironResPublicHealth.13(8).pii:E802. PubMedID:27509516ReactivityHumanApplications:WesternBlot TwentyFour-HourExposuretoa0.12THzElectromagneticFieldDoesNotAffecttheGenotoxicity,MorphologicalChanges,orExpressionofHeatShockProteininHCE-TCells. Koyama,S.etal.(2016)IntJEnvironResPublicHealth.13(8).pii:E802. PubMedID:27527204ReactivityHumanApplications:WesternBlot HeatShockFactor1isaSubstrateforp38Mitogen-ActivatedProteinKinases. DayalanNaidu,S.etal.(2016)MolCellBiol.36(18):2403-17. PubMedID:27354066ReactivityHumanApplications:WesternBlot ExpressionofHeatShockProteinsinHumanFibroblastCellsunderMagneticResonantCouplingWirelessPowerTransfer. Mizuno,K.,Shinohara,N.andMiyakoshi,J.(2015)Energise.8(10):12020-12028. PubMedID:N/AReactivityHumanApplications:WesternBlot CriticalIllnessMyopathy:Understandingdifferenteffectsonmusclefibrefunction. Ogilvie,H.(2015)KarolinskaInstitutet.PhDDissertation. PubMedID:N/AReactivityRatApplications:WesternBlot Heatshockprotein70regulatesdegradationofthemumpsvirusphosphoproteinviatheubiquitin-proteasomepathway. Katoh,H.etal.(2014)JVirol.89(6):3188-99. PubMedID:25552722ReactivityHumanApplications:WesternBlot Heat-inducedexpressionoftheimmediate-earlygeneIER5anditsinvolvementintheproliferationofheat-shockedcells. Ishikawa,Y.andSakurai,H.(2014)FEBSJ.282(2):332-40. PubMedID:25355627ReactivityHumanApplications:WesternBlot ProstaglandinESynthaseInteractswithInducibleHeatShockProtein70AfterHeatStressinBovinePrimaryDermalFibroblastCells. Richter,C.,Viergutz,T.,Schwerin,M.andWeitzel,J.M.(2014)CytometryA.87(1):61-7. PubMedID:25412999ReactivityBovineApplications:WesternBlot Inhibitionofautophagy,lysosomeandVCPfunctionimpairsstressgranuleassembly. Seguin,S.J.etal.(2014)CellDeathDiffer.21(12):1838-51. PubMedID:25034784ReactivityHumanApplications:WesternBlot FastingEnhancesTRAIL-MediatedLiverNaturalKillerCellActivityviaHSP70Upregulation. Dang,V.T.A.etal.(2014)PLoSOne.9(10):e110748. PubMedID:25356750ReactivityMouseApplications:WesternBlot DirectbindingoftheAlubindingproteindimerSRP9/14to40SribosomalsubunitspromotesstressgranuleformationandisregulatedbyAluRNA Berger,A.etal.(2014)NucleicAcidsRes.42(17):11203-17. PubMedID:25200073ReactivityHumanApplications:WesternBlot TherapeuticInducersoftheHSP70/HSP110ProtectMiceAgainstTraumaticBrainInjury. Eroglu,B.etal.(2014)JNeuRochem.130(5):626-41. PubMedID:24903326ReactivityMouseApplications:WesternBlot Acardiopulmonarybypasswithdeephypothermiccirculatoryarrestratmodelfortheinvestigationofthesystemicinflammationresponseandinducedorgandamage. Engels,M.etal.(2014)JInflamm.11(26). PubMedID:25400510ReactivityRatApplications:WesternBlot ModerateAlcoholInducesStressProteinsHSF1andhsp70andInhibitsProinflammatoryCytokinesResultinginEndotoxinTolerance. Muralidharan,S.etal.(2014)JImmunol.193(4):1975-87. PubMedID:25024384ReactivityHumanApplications:WesternBlot Massetermusclemyofibrillarproteinsynthesisanddegradationinanexperimentalcriticalillnessmyopathymodel. Akkad,H.,Corpeno,R.,LarssonL.(2014)PLoSOne.9(4):e92622. PubMedID:24705179ReactivityRatApplications:WesternBlot Structure-ActivityRelationshipsforWithanolidesasInducersoftheCellularHeat-ShockResponse. Wijeratne,E.M.,etal.(2014)JMedChem.57(7):2851-63. PubMedID:24625088ReactivityMouseApplications:WesternBlot DetectionofconstitutiveandinducibleHSP70proteinsinformalinfixedhumanbraintissue. Preusse-Prange,A.,Modrow,J.H.,Schwark,T.,vonWurmb-Schwark,N.(2014)ForensicSciInt.235:62-7. PubMedID:24447452ReactivityHumanApplications:WesternBlot OverexpressionofHeatShockProtein72AttenuatesNF-κBActivationUsingaCombinationofRegulatoryMechanismsinMicroglia. Sheppard,P.W.,Sun,X.,Khammash,M.,Giffard,R.G.(2014)PLoSComputBiol.10(2):e1003471. PubMedID:24516376ReactivityMouseApplications:WesternBlot Effectsofcorticosteroidsinthedevelopmentoflimbmuscleweaknessinaporcineintensivecareunitmodel. Aare,S.etal.(2013)PhysiolGenomics.45(8):312-320. PubMedID:23429211ReactivityPigApplications:WesternBlot IronmodulatescellsurvivalinaRas-andMAPK-dependentmannerinovariancells. Bauckman,K.A.,Haller,E.,Flores.I.,andNanjundan,M.(2013)CellDeathDis.4.e592. PubMedID:23598404ReactivityHumanApplications:WesternBlot MolecularandCellularNetworksinCriticalIllnessAssociatedMuscleWeakness:SkeletalMuscleProteostasisintheIntensiveCareUnit. Banduseela,V.C.(2012)UppsalaUniversity,DisciplinaryDomainofMedicineandPharmacy,FacultyofMedicine,DepartmentofNeuroscience.PhDDissertation PubMedID:N/AReactivityPigApplications:WesternBlot Influencesoftemperature,oxidativestress,andphosphorylationonbindingofheatshockproteinsinskeletalmusclefibers. Larkins,N.T.,Murphy,R.M.,andLamb,G.D.(2012)AmJPhysiolCellPhysiol.303(6):C654-C665. PubMedID:22763123ReactivityRatApplications:WesternBlot DnaJA1AntagonizesConstitutiveHsp70-MediatedStabilizationofTau. Abisambra,J.F.,etal.(2012)J.Mol.Biol.421:653-661. PubMedID:22343013ReactivityHumanApplications:WesternBlot Hsp70PromotesEpithelialSodiumChannelFunctionalExpressionbyIncreasingItsAssociationwithCoatComplexIIandItsExitfromEndoplasmicReticulum. Chanoux,R.A.etal.(2012)JBiolChem.287,19255-19265. PubMedID:22496374ReactivityDogApplications:WesternBlot UsingtheHeat-ShockResponseToDiscoverAnticancerCompoundsthatTargetProteinHomeostasis. Santagata,S.etal.(2012)ACSChem.Biol.7(2):340-349. PubMedID:22050377ReactivityHumanApplications:WesternBlot AbsoluteamountsanddiffusibilityofHSP72,HSP25,andαB-crystallininfast-andslow-twitchskeletalmusclefibersofrat. Larkins,N.T.,Murphy,R.M.,andLamb,G.D.(2011)AmJPhysiolCellPhysiol.302(1):C228-C239. PubMedID:21975426ReactivityRatApplications:WesternBlot Mechanismsunderlyingthesparingofmasticatoryversuslimbmusclefunctioninanexperimentalcriticalillnessmodel. Aare,S.etal.(2011)PhysiolGenomics.43(24):1334-1350. PubMedID:22010006ReactivityPigApplications:WesternBlot HeatShockProtein70PreventsbothTauAggregationandtheInhibitoryEffectsofPreexistingTauAggregatesonFastAxonalTransport. Patterson,K.R.etal.(2011)Biochem.50(47):10300-10310. PubMedID:22039833ReactivityHumanApplications:WesternBlot WithaferinAAnalogsandUsesThereof. Gunatilaka,L.,Lindquist,S.L.,Whitesell,L.,Wijeratne,E.M.K.,andXu,Y.(2011)UnitedStatesPatentApplicationUS20110230551A1. PubMedID:N/AReactivityMouseApplications:WesternBlot Preferentialskeletalmusclemyosinlossinresponsetomechanicalsilencinginanovelratintensivecareunitmodel:underlyingmechanisms. Ochala,J.etal.(2011)JPhysio.589(8):2007-2026. PubMedID:21320889ReactivityRatApplications:WesternBlot Co-overexpressionofBag-1andheatshockprotein70inhumanepidermalsquamouscellcarcinoma:Bag-1-mediatedresistanceto5-fluorouracilinducedapoptosis. Wood,J.etal.(2011)BrJCancer.104(9):1459-1471. PubMedID:21522149ReactivityHumanApplications:WesternBlot EffectsofHSP70onthecompressionforce-inducedTNF-αandRANKLexpressioninhumanperiodontalligamentcells. Mitsuhashi,M.,Yamaguchi,M.,Kojima,T.,Nakajima,R.,Kasai,K.(2011)InflammationResearch.60(2):187-194. PubMedID:20924639ReactivityHumanApplications:WesternBlot DecipheringHumanHeatShockTranscriptionFactor1RegulationviaPost-TranslationalModificationinYeast. Batista-Nascimento,L.,Neef,D.W.,Liu,P.C.C.,Rodrigues-Pousada,C.,Thiele,D.J.(2011)PLoSOne.6(1):e15976. PubMedID:21253609ReactivityMouseApplications:WesternBlot DecipheringHumanHeatShockTranscriptionFactor1RegulationviaPost-TranslationalModificationinYeast. Batista-Nascimento,L.,Neef,D.W.,Liu,P.C.C.,Rodrigues-Pousada,C.,Thiele,D.J.(2011)PLoSOne.6(1):e15976. PubMedID:21253609ReactivityHumanApplications:WesternBlot Tamm-Horsfallproteinandurinaryexosomeisolation. Fernández-Llama,P.etal.(2010)KidneyInt.77,736-742. PubMedID:20130532ReactivityHumanApplications:WesternBlot GeneexpressionandmusclefiberfunctioninaporcineICUmodel. Banduseela,V.C.etal.(2009)PhysiolGenomics.39(3):141-159. PubMedID:19706692ReactivityPigApplications:WesternBlot 2,3-DihydrowithaferinA-3β-O-sulfate,anewpotentialprodrugofwithaferinAfromaeroponicallygrownWithaniasomnifera. Xu,Y.etal.(2009)BioorgMedChem.17(6):2210-2214. PubMedID:19056281ReactivityMouseApplications:WesternBlot IdentificationofPhosphorylation-DependentBindingPartnersofAquaporin-2UsingProteinMassSpectrometry. Zwang,N.A.etal.(2009)J.ProteomeRes.8(3):1540-1554. PubMedID:19209902ReactivityRatApplications:WesternBlot ImmunohistochemistryCanhypoxiaenhancesexualarousal?-Molecular-biologicalanalysisofthehypothalamusinmaleratsplacedwithoestrousfemaleratsunderhypoxicconditions.
Inoue,H.,Yoshida,M.Nishio,H.andTatsumi,S.(2016)IntJClinExpMed.9(10):19512-19520 PubMedID:N/AReactivityRatApplications:Immunohistochemistry DetectionofconstitutiveandinducibleHSP70proteinsinformalinfixedhumanbraintissue. Preusse-Prange,A.,Modrow,J.H.,Schwark,T.,vonWurmb-Schwark,N.(2014)ForensicSciInt.235:62-7. PubMedID:24447452ReactivityHumanApplications:Immunohistochemistry Co-overexpressionofBag-1andheatshockprotein70inhumanepidermalsquamouscellcarcinoma:Bag-1-mediatedresistanceto5-fluorouracilinducedapoptosis. Wood,J.etal.(2011)BrJCancer.104(9):1459-1471. PubMedID:21522149ReactivityHumanApplications:Immunohistochemistry FlowCytometryHeatShockEnhancestheExpressionoftheHumanTCellLeukemiaVirusType-I(HTLV-I)Trans-Activator(Tax)AntigeninHumanHTLV-IInfectedPrimaryandCulturedTCells. Kunihiro,M.etal.(2016)Viruses.8(7). PubMedID:27409630ReactivityHumanApplications:FlowCytometry ProstaglandinESynthaseInteractswithInducibleHeatShockProtein70AfterHeatStressinBovinePrimaryDermalFibroblastCells. Richter,C.,Viergutz,T.,Schwerin,M.andWeitzel,J.M.(2014)CytometryA.87(1):61-7. PubMedID:25412999ReactivityBovineApplications:FlowCytometry Immunocytochemistry/ImmunofluorescenceHeatshockprotein70regulatesdegradationofthemumpsvirusphosphoproteinviatheubiquitin-proteasomepathway. Katoh,H.etal.(2014)JVirol.89(6):3188-99. PubMedID:25552722ReactivityHumanApplications:Immunocytochemistry/Immunofluorescence OtherCitationsProstaglandinESynthaseInteractswithInducibleHeatShockProtein70AfterHeatStressinBovinePrimaryDermalFibroblastCells. Richter,C.,Viergutz,T.,Schwerin,M.andWeitzel,J.M.(2014)CytometryA.87(1):61-7. PubMedID:25412999ReactivityBovineApplications:Immunoprecipitation FastingEnhancesTRAIL-MediatedLiverNaturalKillerCellActivityviaHSP70Upregulation. Dang,V.T.A.etal.(2014)PLoSOne.9(10):e110748. PubMedID:25356750ReactivityMouseApplications:ProteinInhibition MacrophageinflammatoryproteinderivativeECI301enhancesthealarmin-associatedabscopalbenefitsoftumorradiotherapy. Kanegassaki,S.,Matsushima,K.,Shiraishi,K.,Nakagawa,K.andTsuchiya,T.(2014)CancerRes.74(18):5070-8. PubMedID:25038226ReactivityMouseApplications:Immunoprecipitation BioMarkerAnalysiswithGratingCoupledSurfacePlasmonCoupledFluorescence. Mendoza,A.,Dias,J.A.,Zeltner,T.andLawrence,D.A.(2014)JAdvBio&Biotech.1(1):1-22. PubMedID:N/AReactivityHumanApplications:AntibodyMicroarray BiomarkerAnalysiswithGratingCoupledSurfacePlasmonCoupledFluorescence. Mendoza,A.,Dias,J.A.,Zeltner,T.andLawrence,D.A.(2014)JAdvBio&Biotech.1(1):1-22. PubMedID:N/AReactivityMouseApplications:AntibodyMicroarray HeatShockProtein70PreventsbothTauAggregationandtheInhibitoryEffectsofPreexistingTauAggregatesonFastAxonalTransport. Patterson,K.R.etal.(2011)Biochem.50(47):10300-10310. PubMedID:22039833Reactivity<
品牌介绍
StressMarq Biosciences公司的核心技术领域为细胞应激与离子通道以及载体研究,同时在其他领域也取得了一定成就,包括翻译后修饰,提供甲基化与乙酰基化抗体。其中,细胞应激领域主要包括热休克蛋白(HSP)领域。我们公司不仅在热休克蛋白领域领先全球,而且在氧化应激领域也卓有成就。StressMarq的优势在于提供四种独立的产品系列,分别涉及抗体、蛋白、酶联免疫吸附试验(ELISA)试剂盒及小分子领域。
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