Wireless Implantable Mechano-Acoustic Recording Device
Wireless Implantable Mechano-Acoustic Recording Device
批准号:
10484423
负责人:
Cameron Good
金额:
$25.96万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2022
资助国家:
美国
项目状态:
已结题
起止时间:
2022-09-22 至 2023-09-21
关键词:
3-DimensionalAccelerometerAcousticsAdultAnesthesia proceduresAnimal BehaviorAnimal ModelAnimalsArousalBehaviorBehavioralBenchmarkingBluetoothChronicCommunitiesComplexComputer softwareConsumptionCoupledDataData CollectionDevelopmentDevicesDiseaseDrug Delivery SystemsEnvironmentFutureGeneral AnesthesiaHarvestHeartHeart RateImplantIndividualInfrastructureInvestigationLaboratoriesLibrariesLocationLocomotionMeasurementMediatingMethodsMonitorMotionMusMuscleNeuronsNeurosciencesNeurosciences ResearchNoiseOperative Surgical ProceduresPerformancePeripheralPhasePhysiologicalPhysiologyPreparationProceduresPulse OximetryRattusReaderReadingRecordsRecoveryResearchResolutionRespirationRodentSignal TransductionSmall Business Innovation Research GrantSocial BehaviorSocial EnvironmentSocial InteractionSystemTechnologyTemperatureTestingTimeTranslationsUniversitiesValidationWashingtonWorkawakebasebehavior testcostdata acquisitiondata exchangedesigneffective therapyexperimental studyin vivoin vivo evaluationmachine visionminiaturizeminimally invasivemonitoring deviceneuropsychiatric disordernew technologynovel strategiesoperationoptogeneticspre-clinicalprogramspupradio frequencyrelating to nervous systemrespiratoryresponsesignal processingsocialsocial factorssocial groupsubcutaneoustechnology developmenttechnology validationtime usetoolvibrationwirelesswireless electronic
中文摘要
项目摘要-摘要
英文摘要
PROJECT SUMMARY - ABSTRACT
We will design a fully implantable, wireless, battery-free, Mechano-Acoustic (MA) device that allows for multi-
parameter physiological data acquisition from freely moving small animal models, via use of high bandwidth
triaxial accelerometers. The proposed technology records relevant vital sign information such as the heart and
respiration rate and temperature, and other general features about the animal that include locomotion and body
orientation. Each of these features are determined in parallel from subtle motions detected with this platform
using the most advanced inertial measurement unit (IMU) technology and transmitted wirelessly and analyzed
in real-time using Bluetooth Low Energy (BLE) 5.2 to an external reader system – all isolated to individual
subjects within experimental contexts spanning single to multi-animal behaviors. This approach allows other
experimental approaches (video tracking, neural recording, closed-loop optogenetics, etc.) to be directly coupled
to the recorded physiological data. Integration of a BLE 5.2 reading board into the existing NeuroLux Power
Distribution Control (PDC) box will enable simultaneous use with other devices in NeuroLux’s product portfolio,
including fully implantable optogenetic devices and wireless drug-delivery systems that are currently in
widespread use across various parts of the neuroscience community. By delivering both power and data
wirelessly, and by entirely eliminating all external fixtures and physical tethers on the animal, the proposed
technology enables chronic physiological recordings in three-dimensional naturalistic environments, from
isolated individuals or social groups, in ways that are fundamentally impossible with conventional hardware
infrastructure. This low-cost manufacturable system is fully compatible with the NeuroLux radio frequency
wireless electronic platform and control software, allowing us to leverage the strengths of an existing commercial
platform currently in use in >150 laboratories worldwide to further advance neuroscience research capabilities.
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