Three Dimensional Holography for Parallel Multi-target Optogenetic Circuit Manipulation
Three Dimensional Holography for Parallel Multi-target Optogenetic Circuit Manipulation
批准号:
9084944
负责人:
Valentina EMILIANI
金额:
$10.2万
依托单位国家:
美国
项目类别:
财政年份:
2014
资助国家:
美国
项目状态:
已结题
起止时间:
2014-09-30 至 2017-07-31
关键词:
AddressAlgorithmsBehaviorBrainCalciumCellsCognitionCollaborationsCommunicationCommunitiesDevelopmentDimensionsDiseaseEngineeringEsthesiaFinancial compensationFishesFunctional disorderGenerationsGlutamatesGoalsHealthHeatingHeterogeneityHolographyImageIn VitroIndustry CollaboratorsInvestigationKineticsLaboratoriesLanguageLarvaLasersLateralLightLocationMethodsMicroelectrodesMorphologic artifactsMotorMovementNeuronsNeurosciencesOpsinOpticsOutputPatternPerceptionPhotonsPhysiologyPositioning AttributePreparationPropertyProteinsRetinaShapesSiteSpottingsStimulusSystemTechniquesTechnologyTestingThickTimeTissuesValidationZebrafishabsorptionbrain tissuecognitive functioncomputer generateddensitydesignflexibilityimprovedin vivoinnovationinsightlaser tweezerlensmicrobialnervous system disorderneural circuitoptogeneticsphotoactivationprototyperelating to nervous systemtemporal measurementtooltwo-photon
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英文摘要
DESCRIPTION (provided by applicant): Understanding communication between neurons, who is talking to whom, and what language they are speaking, is essential for discovering how brain circuits underlie brain function and dysfunction. Over the past decades, Neuroscience has made exponential progress toward recording and imaging communication between neurons. In addition, geneticists have recently developed the capability to manipulate neurons with light through the expression of light-activated microbial proteins called "opsins." Now, neuroscientists can drive neural circuits in order to determine how they give rise to sensation, perception, and cognitive function. In order to take full advantage of "optogenetic" tools, we are developing holographic methods to deliver patterned light into brain tissue, to enable simultaneous activation of multiple neurons, independently controlling the strength and timing of light targeted
to each cell. Here, we propose to: (1) characterize newly developed opsins to determine which are best suited for holographic activation techniques; (2) implement holographic light patterns in three-dimensions; and, (3) distribute and iteratively optimize the 3D holography system in collaboration with Neuroscientists studying circuits in optically and physiologically diverse neura systems. The end goal is to develop a robust system, capable of manipulating neurons in patterns that mimic naturally occurring activity. Insights gained through this collaborative optimization will be used to inform the design of the commercial prototype developed by our industry collaborator Intelligent Imaging Innovations, Inc. (Denver, CO). The system can thus be widely distributed for neural circuit investigation, both in-vitro and in-vivo, to discover how neual communication gives rise to sensation, perception, cognition, and behavior. Such insights will improve our ability to identify effective targets and methods for treating neurological diseases and disorders.
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