Carlos Perez Castillo - Imaging biomarkers automated structured
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Transcript of Carlos Perez Castillo - Imaging biomarkers automated structured
C A R L O S P É R E Z C A S T I L L O
Imaging Biomarkers Automated Structured Assembly Pipeline
(IB-ASAP)
www.cuantificacionquironvalencia.es www.quiron.es
Digital Radiology
• The workspace of radiologists has changed dramatically with the development and implementation of digital imaging
Radiologist’s Workspace
Multidisciplinary collaboration New workflows
New challenges…
Technology
Radiologists
Engineers
Objective characteristics extracted from medical images
Indicators and measures of normal biological processes, diseases or responses to therapeutic interventions
Obtained before a lesion or biological process becomes evident in the radiological observation, by analyzing properties and multivariate combination of medical images and data
Non invasive
Imaging Biomarkers
Purpose: Workflow improvement
Brain: Morphometry
Sequence optimization for brain morphometry
Brain: Functional MRI
Schizophrenia Auditory
hallucinations
Brain injury Patients with
mobility restriction
Other diseases Tumours, language
disorders
Brain: Neuro-tractography
o Diffusion Tensor Imaging o Neuronal Pathway o Surgical Planning
Prostate: Diffusion
Healthy tissue Pathological tissue
microscopic mobility of tissue water
Prostate: Perfusion
Overlay a vascular
permeability parametric map on anatomical
images
Prostate: Spectroscopy
Biochemical and metabolic profile of the gland. Indicators of tumor presence :
-increased choline - regional reduction in the levels of citrate
Data Pipeline
Workflow Description
DICOM images and
data reception
Organized data storage
and classification
Data preparation
Notifications Post-
processing Algorithms Execution
Post-Processing
Results Management
Post-Processing
Results Management
IB-ASAP
The developments have provided an innovative service that follows an organized process, as a proper technological support to leverage the usability and ease the development and implementation of quantitative imaging
In addition, the software is fully automated, vendor independent and compatible with DICOM standards
cvREMOD (CENIT-E)
Quantify and understand the mechanisms of cardiovascular remodeling, improving the knowledge of the pathophysiological mechanisms
Apply new imaging and modeling technologies
Help with diagnosis Optimize planning and
personalized treatment decisions Improve the monitoring and
prevention of future diseases
Thank you
Supported by grants from SERAM (Sociedad
Española de Radiología Médica)
The authors also thank the Radiology Department of Hospital Quirón Valencia for their help and continuous support with image acquisition and for the clinical validation