Scalable Formulation and Production of Photosensitive Nanoparticles for Cancer Therapy
Scalable Formulation and Production of Photosensitive Nanoparticles for Cancer Therapy
批准号:
9901071
负责人:
Kevin A Carter
金额:
$5.5万
依托单位:
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:
2018-09-06 至 2019-08-31
关键词:
Animal ModelAnimalsApplications GrantsBiologicalBiotechnologyBlood flowBreast Cancer ModelBreast Cancer PatientBuffaloesCaliberCanis familiarisCaringChest wall structureCholesterolClinicalClinical DataClinical TreatmentClinical TrialsCommunicationCutaneousDataDepositionDevelopmentDevelopment PlansDoseDoxorubicinDoxorubicin Hydrochloride LiposomeDrug KineticsEnvironmentEvaluationExhibitsExposure toFDA approvedFormulationFutureGenerationsHumanInvestigational DrugsInvestigational New Drug ApplicationIonizing radiationLasersLeadLesionLightLipidsLiposomal DoxorubicinLiposomesMass Spectrum AnalysisMeasuresMetastatic breast cancerModalityModelingNatureOperative Surgical ProceduresOutcomePUVA PhotochemotherapyPatientsPharmaceutical PreparationsPharmacologic SubstancePhasePhospholipidsPhotosensitivityPhototherapyPorphyrinsPre-Clinical ModelProductionPropertyProtocols documentationPublishingQuality of lifeRadiation therapyRattusRecordsRecurrenceRiskScientistSerumSiteSmall Business Technology Transfer ResearchSolid NeoplasmStandardizationStimulusSurvival RateSystemTechniquesTechnologyTherapeuticToxic effectTumor VolumeUniversitiesVascular PermeabilitiesWomanWorkbasebiomaterial compatibilitycancer therapyclinically relevantdosimetryeffectiveness measureexperienceimprovedin vivoinsightintravenous injectionirradiationmalignant breast neoplasmmid-career facultymouse modelnanoparticlenanovesiclenovelnovel strategiesorthotopic breast cancerpre-clinicalpressureresponsesafety studyscale upside effecttherapeutic effectivenesstranslation to humanstumortumor ablationtumor eradication
中文摘要
项目总结
英文摘要
PROJECT SUMMARY
Up to 20% of treated women with early stage breast cancer will suffer from local recurrences on the chest wall
(RCW). Treatment of local recurrences is problematic and surgery provides only a 33% 5-year control rate.
Radiation therapy is a preferred option, but efficacy is low for larger lesions (>3 cm diameter) and additional
rounds of radiation therapy are associated with other long-term risks due to cumulative ionizing radiation. POP
Biotechnologies (POP BIO) is advancing a relatively unexplored tumor-treatment technique for RCW breast
cancer: chemo-phototherapy (CPT). CPT involves the intravenous injection of long-circulating, doxorubicin-
loaded, porphyrin-phospholipid (PoP) liposomes (NP-01) followed by tumor irradiation with a near infrared (NIR)
laser resulting in the permeabilization of the liposomes and deposition of doxorubicin localized in the tumor. At
present, few, if any, light-controlled systems can achieve robust, on-demand spatial and temporal control of
nanovesicle permeabilization in biological environments. Unlike heat-triggered drug release approaches, NP-01
is fully stable in serum, yet rapidly release their contents when exposed to clinically-relevant NIR laser irradiation.
In mouse models, a single mild laser treatment deposits large amounts of drug, leading to permanent tumor
eradication. In this proposal, PoP Biotechnologies will develop scalable liposome formulation protocols using a
lipid extrusion approach and evaluate the resulting NP-01 product. This project has two specific aims: Aim 1:
Reproducibly produce and characterize doxorubicin-loaded PoP liposomes (NP-01) using a scalable approach;
and Aim 2: Assess in vivo pharmacokinetics, efficacy and toxicity of NP-01 in rats. Pending a successful outcome
of this Phase I grant application, we will put forward a Phase II grant application involving more in depth studies
for treatment dosimetry and efficacy in large animals pertinent for translation to human trials.
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