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Extended Release of Bioactive Factors to Treat Refractory Wounds

Extended Release of Bioactive Factors to Treat Refractory Wounds
延长释放生物活性因子来治疗难治性伤口
批准号:
9924291
负责人:
Yadong Wang
金额:
$37.77万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2016
资助国家:
美国
项目状态:
已结题
起止时间:
2016-07-22 至 2022-04-30
关键词:
Abnormal CellAnatomyAnimal ModelAntibioticsAreaBecaplerminBlood VesselsCaregiversCaringCell ProliferationCell secretionCellsChronicCicatrixClinicalCollagenComplexConsumptionDTR geneDebridementDepositionDermalDiabetes MellitusDiabetic Foot UlcerDiscipline of NursingDorsalDoseEmulsionsEngineeringEnvironmentEpidermal Growth FactorEpidermal Growth Factor ReceptorEpithelialEpithelial Cell ProliferationEpitheliumExcisionExcretory functionExhibitsFamily suidaeFasciaFibroblastsFoundationsFrequenciesGoalsGranulation TissueGrowth FactorHealthHealth Care CostsHealthcareHeparinHeparin BindingHumanIn VitroIndividualInflammationInfusion proceduresInterruptionLeadLiteratureLower ExtremityMeasuresMetabolismModelingMorbidity - disease rateMusMuscleNon-Insulin-Dependent Diabetes MellitusOutcomeOutcome MeasureOxidative StressPatientsPhenotypePhysiologicalPlayProcessPropertyProtein AnalysisProteinsProtocols documentationQuality of lifeReceptor Down-RegulationRefractoryResearchRoleSafetyScienceSelf ManagementSignal TransductionSiteSkinSkin wound healingStreptozocinStructure of beta Cell of isletSystemTensile StrengthTestingThickTimeTreatment CostTreatment EfficacyTreatment outcomeType 2 diabeticWound modelsabsorptionangiogenesisbasecell killingcell motilitychronic woundclinically relevantcostdesigndiabeticdiabetic patientdiabetic wound healingdisabilitydosageefficacy testinghealingimprovedinfection riskinnovationinsightkeratinocytelimb amputationmouse modelnew technologynovel strategiesopen woundpressureproductivity lossprototyperesponseself relianceside effectskin woundstem cellssuccesstissue repairtranslational studywoundwound carewound closurewound healing

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英文摘要
Extended release of bioactive factors to treat refractory wounds Chronic wounds significantly decrease quality of life, lead to severe disability, and are huge burdens on healthcare and caregivers. Diabetes mellitus is expected to afflict 366 million people worldwide by 2030. Among these patients, approximately 15% will develop diabetic foot ulcers. Underlying chronic wounds, abnormal cell phenotypes and chronic inflammation inhibit normal healing processes and elevate the risk of infection. Current clinical solutions are expensive, time-consuming, largely unsuccessful, and lack patient self-management. The overarching goal of this translational study is to advance nursing science and the wound care field, by healing chronic wounds with one-time administration of sustained, local release of growth factors. This effective and economical treatment will be achieved using a new vehicle that protects the bioactivity of the protein cargo. Growth factor signaling plays a pivotal role in the natural wound healing process. The major limitation in growth factor therapies has been the lack of an appropriate delivery system to provide for prolonged signaling. Controlled delivery of growth factor will reduce patient morbidity and risk of infection in chronic wounds while helping patients to manage their care more autonomously. This research focuses on testing the efficacy of a delivery system we recently designed for wound-implicated growth factors and has three specific aims: Aim 1. Investigate the effects of HB-EGF coacervate on wound healing in vitro using normal and diabetic primary human dermal cells and evaluate the safety of the coacervate treatment. Aim 2. Evaluate the efficacy of controlled delivery of HB-EGF to improve diabetic wound healing in a polygenic type 2 diabetic mouse model. Aim 3. Investigate the controlled delivery of HB-EGF to accelerate diabetic wound healing in a porcine model. This proposal will provide the foundation for an easy-to-use product that significantly improve healing of wounds, increase patient self-reliance and quality of life, and reduce the interruption and loss of productivity patients currently must accept. Therefore, this new technology would enable not only improved health outcomes, but also more self-management for individuals with chronic wounds.
期刊论文(3)
专著(0)
科研奖励(0)
会议论文
DOI: 10.1039/c6tb03052a
发表时间: 2017-02-07
期刊: Journal of materials chemistry. B
影响因子: --
作者: [Ding X, Wang Y]
通讯作者: Wang Y
A biocompatible betaine-functionalized polycation for coacervation.
用于凝聚的生物相容性甜菜碱官能化聚阳离子。
DOI: 10.1039/c7sm01763d
发表时间: 2018-01-17
期刊: Soft matter
影响因子: 3.4
作者: [Hwang MP , Ding X , Gao J , Acharya AP , Little SR , Wang Y ]
通讯作者: Wang Y
The matricellular protein decorin delivered intradermally with coacervate improves wound resolution in the CXCR3-deficient mouse model of hypertrophic scarring.
基质细胞蛋白核心蛋白聚糖通过凝聚层皮内递送,改善了 CXCR3 缺陷小鼠肥厚性疤痕模型的伤口消退。
DOI: 10.1111/wrr.13017
发表时间: 2022
期刊: Wound repair and regeneration : official publication of the Wound Healing Society [and] the European Tissue Repair Society
影响因子: --
作者: [Sylakowski,Kyle, Hwang,MintaiPeter, Justin,Amritha, Whaley,Diana, Wang,Yadong, Wells,Alan]
通讯作者: Wells,Alan
Biodegradable metallo-elastomer
  • 批准号:
    10687179
  • 项目类别:
  • 资助金额:
    $37.64万
  • 财政年份:
    2022
  • 负责人:
    Yadong Wang
  • 依托单位:
Biodegradable metallo-elastomer
  • 批准号:
    10522678
  • 项目类别:
  • 资助金额:
    $35.41万
  • 财政年份:
    2022
  • 负责人:
    Yadong Wang
  • 依托单位:
Novel surface-modified bioresorbable zinc-based stent materials
Novel surface-modified bioresorbable zinc-based stent materials
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