Preclinical development of a biological antiviral for universal influenza treatment and prophylaxis using a novel nucleic acid delivery platform
Preclinical development of a biological antiviral for universal influenza treatment and prophylaxis using a novel nucleic acid delivery platform
批准号:
10456296
负责人:
Lyndsey Linke
金额:
$100.01万
依托单位国家:
美国
项目类别:
财政年份:
2018
资助国家:
美国
项目状态:
已结题
起止时间:
2018-08-20 至 2024-03-31
关键词:
AdultAdvanced DevelopmentAmino AcidsAnimalsAntibioticsAntiviral AgentsAntiviral TherapyAntiviral resistanceAvian InfluenzaAvidityBacteriaBindingBiodistributionBiologicalBiomedical EngineeringBiotechnologyCell DeathCellsClinicalCollaborationsComplementDevelopmentDisease OutbreaksDomestic FowlsEconomic BurdenEngineeringEpithelialEpithelial CellsEvaluationFerretsFlu virusFormulationFoundationsFreeze DryingGene ExpressionGenesGenomicsGoalsHealthHepatotoxicityHumanIn VitroIncidenceIndustryInfectionInfectious Disease EpidemiologyInfluenzaInhalationInvadedLaboratoriesLungMeasuresMedicalModelingMorbidity - disease rateMucous MembraneMusNebulizerNoseNucleic AcidsParentsParticle SizePatientsPersonsPhasePhysiologyPlasmidsPopulationPositioning AttributePreventive treatmentProcessProphylactic treatmentProteinsPublic HealthRNA InterferenceRNA Interference PathwayReadinessRegulatory PathwayResearchRespiratory MucosaRiskSafetySeasonsSpecificityStructure of parenchyma of lungSystemTechnologyTestingTherapeuticTherapeutic EffectTissuesTranscriptTranslationsVaccinationVaccinesViralViral VectorVirus ReplicationWorkanalytical methodauxotrophybaseclinical applicationclinical practiceclinically relevantcommercializationcostcytotoxicitydelivery vehicledrug efficacyexperiencefluhigh risk populationhuman modelimmunogenicityin vivoinfluenza infectioninfluenza virus vaccineinfluenzavirusinterestknock-downmethod developmentmortalitymouse modelmultimodalitynovelnovel strategiesnovel therapeutic interventionnucleic acid deliverynucleic acid-based therapeuticspandemic diseasepandemic influenzapathogenphase 1 studyphase 2 studypre-clinicalpreclinical developmentpreclinical studypreservationpreventproduct developmentprogramsrespiratoryseasonal influenzasialic acid receptorsmall hairpin RNAsuccesstumorigenesisuptakevaccine efficacyviral RNAviral resistance
中文摘要
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英文摘要
The goal of this project is to advance the development of a novel biologic antiviral (SiVEC-IAV™) against human
influenza. Influenza is a worldwide public health problem that infects approximately 20% of the U.S. population
annually and is associated with an annual economic burden of over $11 billion USD. Although currently available
influenza vaccines and antivirals are practical approaches to prevent and treat influenza, the efficacy of all
available products is suboptimal and they are contraindicated for many patients. To meet the need for new
approaches to prevent and manage influenza, SiVEC Biotechnologies developed a novel biological antiviral. Our
core-enabling technology is a versatile nucleic acid delivery platform that is characterized as non-immunogenic,
non-pathogenic bacteria. For use as an influenza antiviral (SiVEC-IAV) the bacteria are programmed to
constitutively express short hairpin RNA (shRNA) molecules, and target their delivery directly to mucosal
epithelial cells, where the RNA interference (RNAi) pathway degrades viral transcripts that are necessary for
influenza infection. Phase I studies demonstrated the safety, efficacy, and commercial potential of SiVEC-IAV.
Phase II studies will advance SiVEC-IAV through IND-directed and preclinical studies, including optimization of
the SiVEC-IAV delivery vehicle (Aim 1); definition of the SiVEC-IAV formulation and preliminary product
specifications (Aim 2); and evaluation of SiVEC-IAV in a ferret model of human influenza (Aim 3). The long-term
goal is to obtain FDA approval of SiVEC-IAV and make its widespread use possible. We expect that SiVEC-IAV,
in combination with annual vaccination and other preventative and treatment measures, will be part of a
multimodal approach to reduce the incidence of influenza as well as the cost burden. This unique approach to
safely delivering nucleic acids to the appropriate cells and tissues to facilitate a therapeutic effect overcomes
multiple barriers associated with the translation of RNAi-based therapeutics into clinical practice. In addition, the
SiVEC delivery platform can be tailored to deliver other nucleic acids and gene editing systems to clinically
relevant tissues to extend its utility outside the realm of RNAi-based therapeutics.
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A large-capacity bacterial platform for the production and targeted delivery of gene editing systems
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批准号:10384793
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项目类别:
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资助金额:$28.61万
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财政年份:2021
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负责人:Lyndsey Linke
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依托单位:
Preclinical development of a biological antiviral for universal influenza treatment and prophylaxis using a novel nucleic acid delivery platform
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批准号:10162491
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项目类别:
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资助金额:$101.97万
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财政年份:2018
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负责人:Lyndsey Linke
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依托单位:
海外基金