Rapid 3D Whole-Slide Digitization of Thick Cytopathology Slides with a Gigapixel Microscope
Rapid 3D Whole-Slide Digitization of Thick Cytopathology Slides with a Gigapixel Microscope
批准号:
10010727
负责人:
Mark Harfouche
金额:
$40.0万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2020
资助国家:
美国
项目状态:
已结题
起止时间:
2020-04-15 至 2021-06-30
关键词:
3-DimensionalAcademic Medical CentersArchivesAreaBiological SciencesBiopsyBone Marrow AspirationClinicalCollaborationsComputer softwareConsumptionCustomCytologyCytopathologyDataData SetDevelopmentDevicesDiagnosisDiagnosticEffectivenessEvaluationFeedbackFine needle aspiration biopsyFluorescenceGastrointestinal tract structureGoldHospitalsImageImage-Guided SurgeryImageryLateralLight MicroscopeLightingLocationLungMalignant neoplasm of lungMalignant neoplasm of pancreasMalignant neoplasm of thyroidMeasurementMeasuresMicroscopeModalityMolecularNeedlesOpticsPathologistPathologyPatient CarePerformancePersonsPhaseProceduresProcessRepeat SurgeryResolutionRoboticsSalesSamplingScanningSiteSlideSpecimenSpeedSurgical PathologySystemTechnologyTestingThickThree-Dimensional ImageThyroid GlandTimeUniversitiesVisualWorkbasecancer diagnosisclinical applicationclinically relevantcomputerized data processingdesigndiagnostic accuracydigitaldigital imagingdigital pathologyexperimental studygigabyteimprovedlensperformance testsprocessing speedscreeningtoolwhole slide imaging
中文摘要
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英文摘要
Significance: Digital microscopes are becoming an indispensable tool within the pathology lab. Whole-slide microscope
scanners are now routinely used to record gigapixel-sized images of surgical pathology specimens for archival, sharing,
annotation and automated processing. Unfortunately, whole-slide scanners still cannot efficiently digitize thick specimens, such
as fine-needle aspirates (FNAs) and other cytology samples that are commonly used as the first-line modality for diagnosing
cancer of the lung, thyroid, pancreas and other sites. Standard microscope lenses can only capture data from a 1 mm2 area per
snapshot. Given this limitation, it is currently not technically feasible to fully scan out an entire slide in 3D, which leads to a
number of critical bottlenecks within the cytologist's workflow for cancer diagnosis. Proposal: Ramona Optics is developing a
new micro-camera array microscope (MCAM) that can overcome these limitations to digitize thick specimens (up to 50 µm
deep) at 1 µm3 volumetric resolution across an entire slide. The resulting multi-gigabyte recording can then be examined by
cytopathologists via a custom-developed 3D software interface to aid with various diagnostic tasks. In Phase I of this Fast-Track
proposal, Ramona will finalize the hardware and software for its new MCAM-3D device. In Phase II, Ramona will collaborate
with the Duke University Medical Center and several other cytopathologists to test and measure MCAM-3D performance on
several relevant clinical tasks, including remote telecytology-based assessment of FNA sample adequacy, as well as suitability for
secondary diagnosis. Apart from improving workflow and patient care in the hospital, Ramona Optics also expects the MCAM-
3D to enable a number of critical high-throughput imaging experiments in the life sciences that are currently not possible due
to the limited throughput of current standard microscope designs.
SA1 (Phase I): Integrate hardware and software for whole-slide MCAM-3D capture: Ramona will complete
development of an MCAM-3D device that digitizes whole slides (12 cm2 area, 50 µm thick) at 0.8 and 2.6 µm/pixel lateral and
axial resolution within 1.5 minutes. 3D viewing software will enable real-time interaction with the multi-gigabyte recorded data
volume, offering ~50X more measurements than current 2D whole-slide scanners.
SA2 (Phase II): Evaluate MCAM-3D for telecytology and improve system specifications: In collaboration with 3
cytopathologists at the Duke University Medical Center, Ramona will test the MCAM-3D for remote rapid on-site evaluation
(ROSE) of sample adequacy. ROSE is well-known to improve patient care by reducing repeat procedures. The objective of this
aim is to show that the MCAM-3D can make ROSE easier, quicker and potentially more accurate. At the same time, Ramona
will incorporate study findings to improve lateral/axial imaging resolution to 0.5 µm/1 µm and scanning speed to 30 sec.
SA3 (Phase II): 3D whole-slide digitization and remote viewing for clinical applications: Ramona will improve
the MCAM-3D's processing speeds to enable real-time remote viewing of 3D samples within the Duke University Medical
Center. It will then work with cytopathologists to carefully assess its performance at telecytology-based diagnoses and archiving
specimen material as it works towards a finalized product for sale 6 months after the conclusion of this project.
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Rapid 3D Whole-Slide Digitization of Thick Cytopathology Slides with a Gigapixel Microscope
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批准号:10465303
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项目类别:
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资助金额:$100.0万
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财政年份:2021
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负责人:Mark Harfouche
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依托单位:
Rapid 3D Whole-Slide Digitization of Thick Cytopathology Slides with a Gigapixel Microscope
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批准号:10478298
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项目类别:
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资助金额:$100.0万
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财政年份:2021
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负责人:Mark Harfouche
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依托单位:
Parallelized Imaging and Automated Analysis of Zebrafish Assays with a Gigapixel Microscope
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批准号:10413246
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项目类别:
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资助金额:$97.31万
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财政年份:2017
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负责人:Mark Harfouche
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依托单位:
High-Resolution, Parallelized Imaging of Freely Swimming Zebrafish with a Gigapixel Microscope
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批准号:9789387
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项目类别:
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资助金额:$73.84万
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财政年份:2017
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负责人:Mark Harfouche
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依托单位:
Parallelized Imaging and Automated Analysis of Zebrafish Assays with a Gigapixel Microscope
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批准号:10258054
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项目类别:
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资助金额:$99.93万
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财政年份:2017
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负责人:Mark Harfouche
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依托单位:
海外基金