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Leader 00000nz a2200037n 45 0
001 WKP|Q43168447 (VIAF cluster) (Authority/Source Record)
003 WKP
005 20241020233023.0
008 241020nneanz||abbn n and d
035 ‎‡a (WKP)Q43168447‏
024 ‎‡a 0000-0001-8042-7642‏ ‎‡2 orcid‏
024 ‎‡a 7402461003‏ ‎‡2 scopus‏
035 ‎‡a (OCoLC)Q43168447‏
100 0 ‎‡a Jorge Costa‏ ‎‡c researcher (ORCID 0000-0001-8042-7642)‏ ‎‡9 en‏
375 ‎‡a 1‏ ‎‡2 iso5218‏
400 0 ‎‡a Jorge Costa‏ ‎‡c onderzoeker‏ ‎‡9 nl‏
670 ‎‡a Author's A new biomaterial of nanofibers with the microalga Spirulina as scaffolds to cultivate with stem cells for use in tissue engineering.‏
670 ‎‡a Author's Application of Static Magnetic Fields on the Mixotrophic Culture of Chlorella minutissima for Carbohydrate Production‏
670 ‎‡a Author's Biofixation of carbon dioxide by Spirulina sp. and Scenedesmus obliquus cultivated in a three-stage serial tubular photobioreactor‏
670 ‎‡a Author's Biofunctionalized nanofibers using Arthrospira (Spirulina) biomass and biopolymer‏
670 ‎‡a Author's Biological CO2 mitigation by microalgae: technological trends, future prospects and challenges‏
670 ‎‡a Author's Biological effects of Spirulina‏
670 ‎‡a Author's Biological effects of Spirulina (Arthrospira) biopolymers and biomass in the development of nanostructured scaffolds‏
670 ‎‡a Author's Biologically Active Metabolites Synthesized by Microalgae‏
670 ‎‡a Author's Biomolecule concentrations increase in Chlorella fusca LEB 111 cultured using chemical absorbents and nutrient reuse‏
670 ‎‡a Author's Bioprocess Engineering Aspects of Biopolymer Production by the CyanobacteriumSpirulinaStrain LEB 18‏
670 ‎‡a Author's Bioprocess strategies for enhancing biomolecules productivity in Chlorella fusca LEB 111 using CO2 a carbon source‏
670 ‎‡a Author's Brackish Groundwater from Brazilian Backlands in Spirulina Cultures: Potential of Carbohydrate and Polyunsaturated Fatty Acid Production‏
670 ‎‡a Author's Carbon dioxide fixation by Chlorella kessleri, C. vulgaris, Scenedesmus obliquus and Spirulina sp. cultivated in flasks and vertical tubular photobioreactors.‏
670 ‎‡a Author's Chemical absorption and CO2 biofixation via the cultivation of Spirulina in semicontinuous mode with nutrient recycle‏
670 ‎‡a Author's Chemical modification and structural analysis of protein isolates to produce hydrogel using Whitemouth croaker (Micropogonias furnieri) wastes‏
670 ‎‡a Author's CO2 Biofixation by the Cyanobacterium Spirulina sp. LEB 18 and the Green Alga Chlorella fusca LEB 111 Grown Using Gas Effluents and Solid Residues of Thermoelectric Origin‏
670 ‎‡a Author's Cultivation of different microalgae with pentose as carbon source and the effects on the carbohydrate content‏
670 ‎‡a Author's Development of electrospun nanofibers containing chitosan/PEO blend and phenolic compounds with antibacterial activity‏
670 ‎‡a Author's Development of pH indicator from PLA/PEO ultrafine fibers containing pigment of microalgae origin‏
670 ‎‡a Author's Effect of an active biodegradable package made from bean flour and açaí seed extract on the quality of olive oil‏
670 ‎‡a Author's Effect of microalga Spirulina platensis‏
670 ‎‡a Author's Effect of microalga Spirulina platensis (Arthrospira platensis) on hippocampus lipoperoxidation and lipid profile in rats with induced hypercholesterolemia‏
670 ‎‡a Author's Enhancement of the carbohydrate content in Spirulina by applying CO2, thermoelectric fly ashes and reduced nitrogen supply‏
670 ‎‡a Author's Enzymatic Saccharification of Lignocellulosic Residues by Cellulases Obtained from Solid State Fermentation Using Trichoderma viride‏
670 ‎‡a Author's Erratum to: CO2 Biofixation by the Cyanobacterium Spirulina sp. LEB 18 and the Green Alga Chlorella fusca LEB 111 Grown Using Gas Effluents and Solid Residues of Thermoelectric Origin‏
670 ‎‡a Author's Fatty Acid Biosynthesis from Chlorella in Autotrophic and Mixotrophic Cultivation‏
670 ‎‡a Author's Improving Spirulina platensis biomass yield using a fed-batch process‏
670 ‎‡a Author's Increase in the carbohydrate content of the microalgae Spirulina in culture by nutrient starvation and the addition of residues of whey protein concentrate.‏
670 ‎‡a Author's Innovative development of membrane sparger for carbon dioxide supply in microalgae cultures‏
670 ‎‡a Author's Magnetic field as promoter of growth in outdoor and indoor assays of Chlorella fusca‏
670 ‎‡a Author's Microalgae biosynthesis of silver nanoparticles for application in the control of agricultural pathogens‏
670 ‎‡a Author's Nanoencapsulation of the Bioactive Compounds of Spirulina with a Microalgal Biopolymer Coating‏
670 ‎‡a Author's Optimization of glucoamylase production by Aspergillus niger in solid-state fermentation‏
670 ‎‡a Author's Optimization of phycocyanin extraction from Spirulina platensis using factorial design‏
670 ‎‡a Author's Polyhydroxybutyrate and phenolic compounds microalgae electrospun nanofibers: A novel nanomaterial with antibacterial activity.‏
670 ‎‡a Author's Potential of Live Spirulina platensis on Biosorption of Hexavalent Chromium and Its Conversion to Trivalent Chromium.‏
670 ‎‡a Author's Potential of microalgae as biopesticides to contribute to sustainable agriculture and environmental development‏
670 ‎‡a Author's Production and Characterization of Lipases by Two New Isolates of Aspergillus through Solid-State and Submerged Fermentation.‏
670 ‎‡a Author's Production of biomass and nutraceutical compounds by Spirulina platensis under different temperature and nitrogen regimes.‏
670 ‎‡a Author's Production of Nanofibers Containing the Bioactive Compound C-Phycocyanin.‏
670 ‎‡a Author's Scaffolds Containing Spirulina sp. LEB 18 Biomass: Development, Characterization and Evaluation of In Vitro Biodegradation‏
670 ‎‡a Author's Simultaneous production of lipases and biosurfactants by submerged and solid-state bioprocesses‏
670 ‎‡a Author's Spirulina cultivation with a CO2 absorbent: Influence on growth parameters and macromolecule production.‏
670 ‎‡a Author's Spirulina platensis biomass composition is influenced by the light availability and harvest phase in raceway ponds‏
670 ‎‡a Author's Spirulina platensis is more efficient than Chlorella homosphaera in carbohydrate productivity.‏
670 ‎‡a Author's The role of biochemical engineering in the production of biofuels from microalgae‏
670 ‎‡a Author's Utilization of simulated flue gas containing CO2, SO2, NO and ash for Chlorella fusca cultivation‏
670 ‎‡a Author's Vertical tubular photobioreactor for semicontinuous culture of Cyanobium sp‏
670 ‎‡a wikidata authority control‏ ‎‡u https://viaf.org/processed/DNB|1229516875‏
670 ‎‡a wikidata authority control‏ ‎‡u https://viaf.org/viaf/2753161634375110850002‏
909 ‎‡a (orcid) 0000000180427642‏ ‎‡9 1‏
909 ‎‡a (scopus) 7402461003‏ ‎‡9 1‏
919 ‎‡a scaffoldscontainingspirulinaspleb18biomassdevelopmentcharacterizationandevaluationofinvitrobiodegradation‏ ‎‡A Scaffolds Containing Spirulina sp. LEB 18 Biomass: Development, Characterization and Evaluation of In Vitro Biodegradation‏ ‎‡9 1‏
919 ‎‡a spirulinacultivationwithaco2absorbentinfluenceongrowthparametersandmacromoleculeproduction‏ ‎‡A Spirulina cultivation with a CO2 absorbent: Influence on growth parameters and macromolecule production.‏ ‎‡9 1‏
919 ‎‡a spirulinaplatensisbiomasscompositionisinfluencedbythelightavailabilityandharvestphaseinracewayponds‏ ‎‡A Spirulina platensis biomass composition is influenced by the light availability and harvest phase in raceway ponds‏ ‎‡9 1‏
919 ‎‡a spirulinaplatensisismoreefficientthanchlorellahomosphaeraincarbohydrateproductivity‏ ‎‡A Spirulina platensis is more efficient than Chlorella homosphaera in carbohydrate productivity.‏ ‎‡9 1‏
919 ‎‡a roleofbiochemicalengineeringintheproductionofbiofuelsfrommicroalgae‏ ‎‡A The role of biochemical engineering in the production of biofuels from microalgae‏ ‎‡9 1‏
919 ‎‡a utilizationofsimulatedfluegascontainingco2so2noandashforchlorellafuscacultivation‏ ‎‡A Utilization of simulated flue gas containing CO2, SO2, NO and ash for Chlorella fusca cultivation‏ ‎‡9 1‏
919 ‎‡a verticaltubularphotobioreactorforsemicontinuouscultureofcyanobiumsp‏ ‎‡A Vertical tubular photobioreactor for semicontinuous culture of Cyanobium sp‏ ‎‡9 1‏
919 ‎‡a simultaneousproductionoflipasesandbiosurfactantsbysubmergedandsolidstatebioprocesses‏ ‎‡A Simultaneous production of lipases and biosurfactants by submerged and solid-state bioprocesses‏ ‎‡9 1‏
919 ‎‡a newbiomaterialofnanofiberswiththemicroalgaspirulinaasscaffoldstocultivatewithstemcellsforuseintissueengineering‏ ‎‡A A new biomaterial of nanofibers with the microalga Spirulina as scaffolds to cultivate with stem cells for use in tissue engineering.‏ ‎‡9 1‏
919 ‎‡a applicationofstaticmagneticfieldsonthemixotrophiccultureofchlorellaminutissimaforcarbohydrateproduction‏ ‎‡A Application of Static Magnetic Fields on the Mixotrophic Culture of Chlorella minutissima for Carbohydrate Production‏ ‎‡9 1‏
919 ‎‡a biofixationofcarbondioxidebyspirulinaspandscenedesmusobliquuscultivatedina3stageserialtubularphotobioreactor‏ ‎‡A Biofixation of carbon dioxide by Spirulina sp. and Scenedesmus obliquus cultivated in a three-stage serial tubular photobioreactor‏ ‎‡9 1‏
919 ‎‡a biofunctionalizednanofibersusingarthrospiraspirulinabiomassandbiopolymer‏ ‎‡A Biofunctionalized nanofibers using Arthrospira (Spirulina) biomass and biopolymer‏ ‎‡9 1‏
919 ‎‡a biologicalco2mitigationbymicroalgaetechnologicaltrendsfutureprospectsandchallenges‏ ‎‡A Biological CO2 mitigation by microalgae: technological trends, future prospects and challenges‏ ‎‡9 1‏
919 ‎‡a biologicaleffectsofspirulina‏ ‎‡A Biological effects of Spirulina‏ ‎‡9 1‏
919 ‎‡a biologicaleffectsofspirulinaarthrospirabiopolymersandbiomassinthedevelopmentofnanostructuredscaffolds‏ ‎‡A Biological effects of Spirulina (Arthrospira) biopolymers and biomass in the development of nanostructured scaffolds‏ ‎‡9 1‏
919 ‎‡a biologicallyactivemetabolitessynthesizedbymicroalgae‏ ‎‡A Biologically Active Metabolites Synthesized by Microalgae‏ ‎‡9 1‏
919 ‎‡a biomoleculeconcentrationsincreaseinchlorellafuscaleb111culturedusingchemicalabsorbentsandnutrientreuse‏ ‎‡A Biomolecule concentrations increase in Chlorella fusca LEB 111 cultured using chemical absorbents and nutrient reuse‏ ‎‡9 1‏
919 ‎‡a bioprocessengineeringaspectsofbiopolymerproductionbythecyanobacteriumspirulinastrainleb18‏ ‎‡A Bioprocess Engineering Aspects of Biopolymer Production by the CyanobacteriumSpirulinaStrain LEB 18‏ ‎‡9 1‏
919 ‎‡a bioprocessstrategiesforenhancingbiomoleculesproductivityinchlorellafuscaleb111usingco2acarbonsource‏ ‎‡A Bioprocess strategies for enhancing biomolecules productivity in Chlorella fusca LEB 111 using CO2 a carbon source‏ ‎‡9 1‏
919 ‎‡a brackishgroundwaterfrombrazilianbacklandsinspirulinaculturespotentialofcarbohydrateandpolyunsaturatedfattyacidproduction‏ ‎‡A Brackish Groundwater from Brazilian Backlands in Spirulina Cultures: Potential of Carbohydrate and Polyunsaturated Fatty Acid Production‏ ‎‡9 1‏
919 ‎‡a carbondioxidefixationbychlorellakessleri100vulgarisscenedesmusobliquusandspirulinaspcultivatedinflasksandverticaltubularphotobioreactors‏ ‎‡A Carbon dioxide fixation by Chlorella kessleri, C. vulgaris, Scenedesmus obliquus and Spirulina sp. cultivated in flasks and vertical tubular photobioreactors.‏ ‎‡9 1‏
919 ‎‡a chemicalabsorptionandco2biofixationviathecultivationofspirulinainsemicontinuousmodewithnutrientrecycle‏ ‎‡A Chemical absorption and CO2 biofixation via the cultivation of Spirulina in semicontinuous mode with nutrient recycle‏ ‎‡9 1‏
919 ‎‡a chemicalmodificationandstructuralanalysisofproteinisolatestoproducehydrogelusingwhitemouthcroakermicropogoniasfurnieriwastes‏ ‎‡A Chemical modification and structural analysis of protein isolates to produce hydrogel using Whitemouth croaker (Micropogonias furnieri) wastes‏ ‎‡9 1‏
919 ‎‡a co2biofixationbythecyanobacteriumspirulinaspleb18andthegreenalgachlorellafuscaleb111grownusinggaseffluentsandsolidresiduesofthermoelectricorigin‏ ‎‡A CO2 Biofixation by the Cyanobacterium Spirulina sp. LEB 18 and the Green Alga Chlorella fusca LEB 111 Grown Using Gas Effluents and Solid Residues of Thermoelectric Origin‏ ‎‡9 1‏
919 ‎‡a cultivationofdifferentmicroalgaewithpentoseascarbonsourceandtheeffectsonthecarbohydratecontent‏ ‎‡A Cultivation of different microalgae with pentose as carbon source and the effects on the carbohydrate content‏ ‎‡9 1‏
919 ‎‡a developmentofelectrospunnanofiberscontainingchitosanpeoblendandphenoliccompoundswithantibacterialactivity‏ ‎‡A Development of electrospun nanofibers containing chitosan/PEO blend and phenolic compounds with antibacterial activity‏ ‎‡9 1‏
919 ‎‡a developmentofphindicatorfromplapeoultrafinefiberscontainingpigmentofmicroalgaeorigin‏ ‎‡A Development of pH indicator from PLA/PEO ultrafine fibers containing pigment of microalgae origin‏ ‎‡9 1‏
919 ‎‡a effectofanactivebiodegradablepackagemadefrombeanflourandacaiseedextractonthequalityofoliveoil‏ ‎‡A Effect of an active biodegradable package made from bean flour and açaí seed extract on the quality of olive oil‏ ‎‡9 1‏
919 ‎‡a effectofmicroalgaspirulinaplatensis‏ ‎‡A Effect of microalga Spirulina platensis‏ ‎‡9 1‏
919 ‎‡a effectofmicroalgaspirulinaplatensisarthrospiraplatensisonhippocampuslipoperoxidationandlipidprofileinratswithinducedhypercholesterolemia‏ ‎‡A Effect of microalga Spirulina platensis (Arthrospira platensis) on hippocampus lipoperoxidation and lipid profile in rats with induced hypercholesterolemia‏ ‎‡9 1‏
919 ‎‡a enhancementofthecarbohydratecontentinspirulinabyapplyingco2thermoelectricflyashesandreducednitrogensupply‏ ‎‡A Enhancement of the carbohydrate content in Spirulina by applying CO2, thermoelectric fly ashes and reduced nitrogen supply‏ ‎‡9 1‏
919 ‎‡a enzymaticsaccharificationoflignocellulosicresiduesbycellulasesobtainedfromsolidstatefermentationusingtrichodermaviride‏ ‎‡A Enzymatic Saccharification of Lignocellulosic Residues by Cellulases Obtained from Solid State Fermentation Using Trichoderma viride‏ ‎‡9 1‏
919 ‎‡a erratumtoco2biofixationbythecyanobacteriumspirulinaspleb18andthegreenalgachlorellafuscaleb111grownusinggaseffluentsandsolidresiduesofthermoelectricorigin‏ ‎‡A Erratum to: CO2 Biofixation by the Cyanobacterium Spirulina sp. LEB 18 and the Green Alga Chlorella fusca LEB 111 Grown Using Gas Effluents and Solid Residues of Thermoelectric Origin‏ ‎‡9 1‏
919 ‎‡a fattyacidbiosynthesisfromchlorellainautotrophicandmixotrophiccultivation‏ ‎‡A Fatty Acid Biosynthesis from Chlorella in Autotrophic and Mixotrophic Cultivation‏ ‎‡9 1‏
919 ‎‡a improvingspirulinaplatensisbiomassyieldusingafedbatchprocess‏ ‎‡A Improving Spirulina platensis biomass yield using a fed-batch process‏ ‎‡9 1‏
919 ‎‡a increaseinthecarbohydratecontentofthemicroalgaespirulinainculturebynutrientstarvationandtheadditionofresiduesofwheyproteinconcentrate‏ ‎‡A Increase in the carbohydrate content of the microalgae Spirulina in culture by nutrient starvation and the addition of residues of whey protein concentrate.‏ ‎‡9 1‏
919 ‎‡a innovativedevelopmentofmembranespargerforcarbondioxidesupplyinmicroalgaecultures‏ ‎‡A Innovative development of membrane sparger for carbon dioxide supply in microalgae cultures‏ ‎‡9 1‏
919 ‎‡a magneticfieldaspromoterofgrowthinoutdoorandindoorassaysofchlorellafusca‏ ‎‡A Magnetic field as promoter of growth in outdoor and indoor assays of Chlorella fusca‏ ‎‡9 1‏
919 ‎‡a microalgaebiosynthesisofsilvernanoparticlesforapplicationinthecontrolofagriculturalpathogens‏ ‎‡A Microalgae biosynthesis of silver nanoparticles for application in the control of agricultural pathogens‏ ‎‡9 1‏
919 ‎‡a nanoencapsulationofthebioactivecompoundsofspirulinawithamicroalgalbiopolymercoating‏ ‎‡A Nanoencapsulation of the Bioactive Compounds of Spirulina with a Microalgal Biopolymer Coating‏ ‎‡9 1‏
919 ‎‡a optimizationofglucoamylaseproductionbyaspergillusnigerinsolidstatefermentation‏ ‎‡A Optimization of glucoamylase production by Aspergillus niger in solid-state fermentation‏ ‎‡9 1‏
919 ‎‡a optimizationofphycocyaninextractionfromspirulinaplatensisusingfactorialdesign‏ ‎‡A Optimization of phycocyanin extraction from Spirulina platensis using factorial design‏ ‎‡9 1‏
919 ‎‡a polyhydroxybutyrateandphenoliccompoundsmicroalgaeelectrospunnanofibersanovelnanomaterialwithantibacterialactivity‏ ‎‡A Polyhydroxybutyrate and phenolic compounds microalgae electrospun nanofibers: A novel nanomaterial with antibacterial activity.‏ ‎‡9 1‏
919 ‎‡a potentialoflivespirulinaplatensisonbiosorptionofhexavalentchromiumanditsconversiontotrivalentchromium‏ ‎‡A Potential of Live Spirulina platensis on Biosorption of Hexavalent Chromium and Its Conversion to Trivalent Chromium.‏ ‎‡9 1‏
919 ‎‡a potentialofmicroalgaeasbiopesticidestocontributetosustainableagricultureandenvironmentaldevelopment‏ ‎‡A Potential of microalgae as biopesticides to contribute to sustainable agriculture and environmental development‏ ‎‡9 1‏
919 ‎‡a productionandcharacterizationoflipasesby2newisolatesofaspergillusthroughsolidstateandsubmergedfermentation‏ ‎‡A Production and Characterization of Lipases by Two New Isolates of Aspergillus through Solid-State and Submerged Fermentation.‏ ‎‡9 1‏
919 ‎‡a productionofbiomassandnutraceuticalcompoundsbyspirulinaplatensisunderdifferenttemperatureandnitrogenregimes‏ ‎‡A Production of biomass and nutraceutical compounds by Spirulina platensis under different temperature and nitrogen regimes.‏ ‎‡9 1‏
919 ‎‡a productionofnanofiberscontainingthebioactivecompound100phycocyanin‏ ‎‡A Production of Nanofibers Containing the Bioactive Compound C-Phycocyanin.‏ ‎‡9 1‏
946 ‎‡a b‏ ‎‡9 1‏
996 ‎‡2 SUDOC|029080061‏
996 ‎‡2 BNC|981061162843506706‏
996 ‎‡2 LC|no 96061481‏
996 ‎‡2 ISNI|0000000070632426‏
996 ‎‡2 ISNI|0000000000129921‏
996 ‎‡2 KRNLK|KAC202186290‏
996 ‎‡2 LC|n 81113894‏
996 ‎‡2 JPG|500235806‏
996 ‎‡2 ISNI|0000000140178784‏
996 ‎‡2 PTBNP|1159611‏
996 ‎‡2 ISNI|0000000067687020‏
996 ‎‡2 BIBSYS|6062784‏
996 ‎‡2 BLBNB|000167557‏
996 ‎‡2 BNC|981061059374006706‏
996 ‎‡2 PTBNP|1753183‏
996 ‎‡2 PTBNP|1840654‏
996 ‎‡2 ISNI|0000000118519589‏
996 ‎‡2 BNE|XX6252986‏
996 ‎‡2 NTA|135589231‏
996 ‎‡2 ISNI|000000000266280X‏
996 ‎‡2 PTBNP|1395042‏
996 ‎‡2 CAOONL|ncf10684614‏
996 ‎‡2 LC|nb 91533090‏
996 ‎‡2 PTBNP|401352‏
996 ‎‡2 SUDOC|270470557‏
996 ‎‡2 ISNI|0000000070090858‏
996 ‎‡2 RERO|A003137875‏
996 ‎‡2 BAV|495_62439‏
996 ‎‡2 BAV|495_62437‏
996 ‎‡2 PTBNP|138185‏
996 ‎‡2 ISNI|0000000449846904‏
996 ‎‡2 BLBNB|000212295‏
996 ‎‡2 NSK|000330364‏
996 ‎‡2 LC|nb2007014526‏
996 ‎‡2 BLBNB|000596280‏
996 ‎‡2 PTBNP|1864661‏
996 ‎‡2 ICCU|LO1V470783‏
996 ‎‡2 DNB|1075072328‏
996 ‎‡2 SUDOC|160190118‏
996 ‎‡2 CAOONL|ncf10728578‏
996 ‎‡2 LC|no2007144572‏
996 ‎‡2 RERO|A003138021‏
996 ‎‡2 PTBNP|229504‏
996 ‎‡2 ISNI|0000000392110321‏
996 ‎‡2 ISNI|0000000091504079‏
996 ‎‡2 ISNI|0000000044988824‏
996 ‎‡2 DNB|1256132306‏
996 ‎‡2 PTBNP|1295933‏
996 ‎‡2 ISNI|0000000068210443‏
996 ‎‡2 PTBNP|221736‏
996 ‎‡2 ISNI|0000000068912138‏
996 ‎‡2 DNB|1181001617‏
996 ‎‡2 PTBNP|216748‏
996 ‎‡2 LC|n 2009045031‏
996 ‎‡2 PTBNP|52326‏
996 ‎‡2 ISNI|0000000055167888‏
996 ‎‡2 PTBNP|964465‏
996 ‎‡2 BNE|XX5119117‏
996 ‎‡2 J9U|987007367284805171‏
996 ‎‡2 BLBNB|000167227‏
996 ‎‡2 BLBNB|000481998‏
996 ‎‡2 KRNLK|KAC202307665‏
996 ‎‡2 BLBNB|000167229‏
996 ‎‡2 LC|n 99261723‏
996 ‎‡2 BLBNB|000391714‏
996 ‎‡2 NYNYRILM|195278‏
996 ‎‡2 BLBNB|000250824‏
996 ‎‡2 DNB|105731062X‏
996 ‎‡2 BNF|15744629‏
996 ‎‡2 ISNI|0000000070307631‏
996 ‎‡2 NTA|073458384‏
996 ‎‡2 ISNI|0000000083101106‏
996 ‎‡2 LC|no2013123999‏
996 ‎‡2 BIBSYS|54373‏
996 ‎‡2 PTBNP|254610‏
996 ‎‡2 LC|ns2012005099‏
996 ‎‡2 NUKAT|n 99031046‏
996 ‎‡2 PTBNP|44090‏
996 ‎‡2 DNB|171226003‏
996 ‎‡2 ISNI|0000000066328907‏
996 ‎‡2 ISNI|0000000068311690‏
996 ‎‡2 ISNI|0000000070826052‏
996 ‎‡2 DNB|1215212798‏
996 ‎‡2 PTBNP|270206‏
996 ‎‡2 PTBNP|214900‏
996 ‎‡2 LC|no2011040512‏
996 ‎‡2 ISNI|000000010794247X‏
996 ‎‡2 SUDOC|253756480‏
996 ‎‡2 ISNI|0000000068705921‏
996 ‎‡2 PTBNP|1107995‏
996 ‎‡2 ISNI|0000000385969891‏
996 ‎‡2 PTBNP|1276313‏
996 ‎‡2 PTBNP|252351‏
996 ‎‡2 SUDOC|143216015‏
996 ‎‡2 PTBNP|254920‏
996 ‎‡2 ISNI|0000000115980281‏
996 ‎‡2 SUDOC|076189813‏
996 ‎‡2 SUDOC|152934855‏
996 ‎‡2 LC|no2006077751‏
996 ‎‡2 ISNI|0000000069295784‏
996 ‎‡2 BNF|11897791‏
996 ‎‡2 PTBNP|52364‏
996 ‎‡2 NTA|172300436‏
996 ‎‡2 ISNI|0000000373513133‏
996 ‎‡2 SUDOC|13364605X‏
996 ‎‡2 PTBNP|1839349‏
996 ‎‡2 ISNI|0000000070991699‏
996 ‎‡2 LC|nr 95028903‏
996 ‎‡2 NUKAT|n 2017024291‏
996 ‎‡2 PTBNP|1900360‏
996 ‎‡2 LC|n 2006211971‏
996 ‎‡2 SUDOC|112218377‏
996 ‎‡2 ISNI|0000000032406495‏
996 ‎‡2 SUDOC|028457536‏
996 ‎‡2 BLBNB|000542878‏
996 ‎‡2 LC|n 2007026994‏
996 ‎‡2 ISNI|0000000430740050‏
996 ‎‡2 PTBNP|27936‏
996 ‎‡2 PTBNP|1459251‏
996 ‎‡2 ISNI|0000000109973886‏
996 ‎‡2 DNB|1126207454‏
996 ‎‡2 ISNI|0000000390139462‏
996 ‎‡2 PTBNP|1859927‏
996 ‎‡2 ISNI|0000000070827397‏
996 ‎‡2 BNC|981058514195406706‏
996 ‎‡2 J9U|987007461006405171‏
996 ‎‡2 DNB|1140920944‏
996 ‎‡2 SUDOC|108152383‏
996 ‎‡2 ISNI|0000000068109513‏
996 ‎‡2 CAOONL|ncf10646015‏
996 ‎‡2 BLBNB|000470240‏
996 ‎‡2 BLBNB|000524040‏
996 ‎‡2 PTBNP|243911‏
996 ‎‡2 SUDOC|261585010‏
996 ‎‡2 PTBNP|52536‏
996 ‎‡2 PLWABN|9812829357905606‏
996 ‎‡2 LC|n 94065306‏
996 ‎‡2 LC|n 2010061333‏
996 ‎‡2 PTBNP|1691929‏
996 ‎‡2 ISNI|0000000060116612‏
996 ‎‡2 ISNI|000000038594458X‏
996 ‎‡2 ISNI|0000000010935951‏
996 ‎‡2 LC|n 2014205532‏
996 ‎‡2 BAV|495_150204‏
996 ‎‡2 BNC|981058516534806706‏
996 ‎‡2 RERO|A005821695‏
996 ‎‡2 ISNI|0000000068420328‏
996 ‎‡2 KRNLK|KAC2019F4581‏
996 ‎‡2 ISNI|0000000021796555‏
996 ‎‡2 BNF|12456389‏
996 ‎‡2 BNC|981058617435306706‏
996 ‎‡2 PTBNP|709918‏
996 ‎‡2 LC|no2009118834‏
996 ‎‡2 PTBNP|1000281‏
996 ‎‡2 DNB|119357674‏
996 ‎‡2 RERO|A005543147‏
996 ‎‡2 SUDOC|06721911X‏
996 ‎‡2 DNB|133364615‏
996 ‎‡2 ISNI|0000000070926328‏
996 ‎‡2 SUDOC|032484909‏
996 ‎‡2 ISNI|0000000072718549‏
996 ‎‡2 DNB|116689099‏
996 ‎‡2 BNC|981058527398806706‏
996 ‎‡2 LC|n 88005447‏
996 ‎‡2 PTBNP|1302322‏
996 ‎‡2 BNE|XX1667113‏
996 ‎‡2 NKC|xx0223280‏
996 ‎‡2 NUKAT|n 2014190006‏
996 ‎‡2 LC|n 2024000229‏
996 ‎‡2 LC|no2016016451‏
996 ‎‡2 PTBNP|1007607‏
996 ‎‡2 ISNI|0000000069313313‏
996 ‎‡2 ICCU|CFIV061419‏
996 ‎‡2 ISNI|0000000434631513‏
996 ‎‡2 RERO|A027397206‏
996 ‎‡2 ISNI|0000000070631554‏
996 ‎‡2 ISNI|0000000073687676‏
996 ‎‡2 BLBNB|000389001‏
996 ‎‡2 ISNI|0000000459753015‏
996 ‎‡2 SUDOC|23481604X‏
996 ‎‡2 PTBNP|52592‏
996 ‎‡2 BNE|XX5774918‏
996 ‎‡2 ISNI|0000000073092090‏
996 ‎‡2 ISNI|0000000073256470‏
996 ‎‡2 ISNI|0000000059367561‏
996 ‎‡2 ISNI|0000000107866235‏
996 ‎‡2 LC|nb2012022318‏
996 ‎‡2 ISNI|0000000067458949‏
996 ‎‡2 ISNI|0000000069190683‏
996 ‎‡2 PTBNP|187097‏
996 ‎‡2 DNB|1041661517‏
996 ‎‡2 SUDOC|186080298‏
996 ‎‡2 ISNI|0000000069921423‏
996 ‎‡2 ISNI|0000000032002319‏
996 ‎‡2 PTBNP|52697‏
996 ‎‡2 ISNI|0000000068793263‏
996 ‎‡2 PTBNP|1602993‏
996 ‎‡2 BNC|981061110236606706‏
996 ‎‡2 BNC|981061113927406706‏
996 ‎‡2 PTBNP|84086‏
996 ‎‡2 ISNI|0000000070941632‏
996 ‎‡2 LC|nb2013023158‏
996 ‎‡2 LC|no2010006260‏
996 ‎‡2 BNE|XX1004745‏
996 ‎‡2 B2Q|0000102325‏
996 ‎‡2 PTBNP|280719‏
996 ‎‡2 LC|n 2017250964‏
996 ‎‡2 PTBNP|1181305‏
996 ‎‡2 PTBNP|80835‏
996 ‎‡2 SUDOC|033451818‏
996 ‎‡2 PTBNP|192475‏
996 ‎‡2 PTBNP|42591‏
996 ‎‡2 PTBNP|1299025‏
996 ‎‡2 PTBNP|1590173‏
996 ‎‡2 PTBNP|1908310‏
996 ‎‡2 ISNI|000000008008294X‏
996 ‎‡2 PTBNP|152968‏
996 ‎‡2 DNB|1150244453‏
996 ‎‡2 ISNI|0000000066509230‏
996 ‎‡2 CAOONL|ncf10106043‏
996 ‎‡2 NYNYRILM|149362‏
996 ‎‡2 PTBNP|52359‏
996 ‎‡2 DNB|1264083246‏
996 ‎‡2 ISNI|0000000068304968‏
996 ‎‡2 NII|DA05830843‏
996 ‎‡2 BNF|18167419‏
996 ‎‡2 ISNI|0000000068105600‏
996 ‎‡2 BLBNB|000203469‏
996 ‎‡2 SUDOC|188553746‏
996 ‎‡2 SUDOC|085782955‏
996 ‎‡2 ISNI|0000000068715484‏
996 ‎‡2 BLBNB|000404078‏
996 ‎‡2 NTA|080086535‏
996 ‎‡2 PTBNP|1441484‏
996 ‎‡2 PTBNP|83759‏
996 ‎‡2 BAV|495_343599‏
996 ‎‡2 ISNI|0000000068314824‏
996 ‎‡2 ISNI|0000000418620697‏
996 ‎‡2 PTBNP|186858‏
996 ‎‡2 ICCU|CUBV169558‏
996 ‎‡2 BLBNB|001536774‏
996 ‎‡2 BNF|15114413‏
996 ‎‡2 DNB|188355553‏
996 ‎‡2 BNC|981058608718506706‏
996 ‎‡2 DNB|101128586X‏
996 ‎‡2 BLBNB|000606595‏
996 ‎‡2 BNE|XX6517160‏
996 ‎‡2 PTBNP|187030‏
996 ‎‡2 SUDOC|238253538‏
996 ‎‡2 BIBSYS|90296684‏
997 ‎‡a 0 0 lived 0 0‏ ‎‡9 1‏
998 ‎‡a Costa, Jorge Alberto Vieira‏ ‎‡2 DNB|1229516875‏ ‎‡3 suggested‏ ‎‡3 standard number‏