grant

Tacrolimus-eluting nerve guidance conduit for enhanced regeneration in critical-sized peripheral nerve injuries

Organization MICROSURGICAL INNOVATIONS, INC.Location SALT LAKE CITY, UNITED STATESPosted 30 Sept 2019Deadline 30 Apr 2027
NIHUS FederalResearch GrantFY2025AccidentsAddressAdvanced DevelopmentAdverse effectsAdverse reactionsAffectAllograftingAnimal ModelAnimal Models and Related StudiesAutograftAutologous TransplantationAutotransplantBenchmarkingBest Practice AnalysisBiomedical EngineeringBiomedical ResearchChronic disabilityClinicalClinical TrialsCollaborationsCommon Rat StrainsConsultationsDedicationsDevelopment and ResearchDevice DesignsDevicesDiffusionDrug ApprovalDrugsEngineeringEnsureEnvironmentFDA approvedFK 506FK506FoundationsFunctional impairmentGoalsGood Manufacturing ProcessGood manufacturing practiceGuidelinesHealth Care CostsHealth CostsHumanImmunosuppressantsImmunosuppressive AgentsImmunosuppressive drugImmunosuppressive treatmentIncidenceIndividualInjuryLeadLeftLong-Term CareLytotoxicityMarketingMedical DeviceMedical RehabilitationMedicationMethodologyMethodsMicrosurgeryMissionModelingModern ManNational Institutes of HealthNatural regenerationNerveNerve RegenerationNeuro-regenerationNeurologyNeuroregenerationNeurosciencesOperative ProceduresOperative Surgical ProceduresPathway interactionsPatient outcomePatient-Centered OutcomesPatient-Focused OutcomesPatientsPb elementPerformancePeripheral nerve injuryPersistent disabilityPharmaceutical PreparationsPharmacologyPhasePositionPositioning AttributePreparationProceduresPropertyPublic HealthQOLQuality of lifeR & DR&DRatRats MammalsRattusRecovery of FunctionRegenerationRegenerative MedicineRegulatory AffairsRegulatory PathwayRehabilitationRehabilitation therapyReoperationRepeat SurgeryResearchSafetySecureSiteSurgicalSurgical InterventionsSurgical ProcedureTacrolimusTechniquesTechnologyTestingTherapeuticToxicity TestingToxicity TestsUnited States National Institutes of Healthautologous graftautotransplantationbench bed sidebench bedsidebench to bed sidebench to bedsidebench to clinicbench to clinical practicebenchmarkbio-engineeredbio-engineersbiocompatibilitybioengineeringbiological engineeringbiomaterial compatibilitycaprolactonechronic painclinical applicabilityclinical applicationcommercial scale manufacturingcommercializationconsultationcytotoxicitydesigndesigningdiffuseddiffusesdiffusingdiffusionsdisabilitydosagedrug detectiondrug developmentdrug testingdrug/agenteffective therapyeffective treatmentepsilon-caprolactoneextended carefunctional recoverygood laboratory practiceheavy metal Pbheavy metal leadimmune suppressive agentimmune suppressorimmunosuppressive substanceimmunosuppressorimprovedimproved outcomein vivoinjuriesinnovateinnovationinnovativeinnovative technologiesirritationlong-term rehabilitationmanufacturemanufacturing processmanufacturing ramp-upmanufacturing scale-upmodel of animalmultidisciplinarynerve gapnerve injurynerve reconstructionnerve repairnervous system regenerationneural injuryneural regenerationneuroprotectionneuroprotectiveneuroregenerativenew approachesnext generationnon-drugnondrugnovel approachesnovel strategiesnovel strategypathwaypatient oriented outcomesperipheral nerve crush injuriesperipheral nerve repairpreparationsprocess improvementprototyperegenerateregenerated nerveregeneration potentialregenerative potentialrehab therapyrehabilitativerehabilitative therapyresearch and developmentresearch facilitysafety assessmentscale up batchscale up productionsciatic nervestandard carestandard of carestandard treatmentsuccesssurgerysurgery outcomesurgical outcomesystemic toxicitytherapeutically effectivetranslational medicinetraumatic eventtreatment and outcomeupscale manufacturing
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Full Description

PROJECT SUMMARY/ABSTRACT
This project aims to commercialize a state-of-the-art FK506-eluting, biodegradable nerve conduit designed to

improve the treatment and outcomes of peripheral nerve injuries dramatically. Peripheral nerve injuries, which

can result from a variety of causes, including accidents and surgical interventions, often lead to significant

disabilities, chronic pain, and a reduction in quality of life for those affected. The limitations of current nerve

repair techniques, such as autografts and synthetic conduits, highlight an urgent need for innovative solutions that

can enhance nerve regeneration and functional recovery.

Our proposal introduces a novel strategy that leverages the regenerative potential of FK506 (tacrolimus), an FDA-

approved immunosuppressant known for its neuroprotective properties, incorporated into a biodegradable

conduit. This conduit is engineered to deliver FK506 directly to the site of nerve injury in a controlled and

sustained manner, optimizing the environment for nerve regeneration.

In Phase II of our FK506-eluting nerve conduit project, we focus on three primary aims: 1) optimizing the

manufacturing process for clinical-grade consistency, 2) validating the conduit’s efficacy in enhanced animal

models to better mirror human nerve injury scenarios, and 3) conducting thorough biocompatibility and safety

assessments to ensure no adverse effects. These steps are crucial for preparing the conduit for clinical trials,

aiming to revolutionize peripheral nerve injury treatment by proving its superiority in promoting nerve

regeneration and functional recovery. Successful completion will pave the way for regulatory submissions and

set the stage for clinical applications, marking a significant leap toward improving patient outcomes in nerve

repair.

This project seeks to revolutionize peripheral nerve injury treatment, improving surgical outcomes and patient

quality of life. It aligns with the National Institutes of Health (NIH) mission to advance biomedical research and

public health by developing innovative solutions to reduce the burden of nerve injuries. The success of this project

could significantly reduce healthcare costs by decreasing the need for repeated surgeries and long-term

rehabilitation, addressing a critical gap in current treatment methodologies.

The introduction of this FK506-eluting nerve conduit represents a significant advancement in regenerative

medicine and nerve repair, potentially setting a new benchmark in therapeutic approaches for peripheral nerve

injuries. Upon successful completion, this project will progress to Phase IIB, focused on scaling up production,

extensive biocompatibility testing, and preparations for clinical trials, ultimately bringing this transformative

technology to patients and clinicians.

Grant Number: 2R42NS112066-02
NIH Institute/Center: NIH

Principal Investigator: AZUR AZAPAGIC

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