NA-MIC National Alliance for Medical Image Computing Programming Week Kickoff MIT, June 27, 2005.

Slides:



Advertisements
Similar presentations
National Alliance for Medical Image Computing Slicer3 plugins Common architecture for interactive and batch processing.
Advertisements

NA-MIC National Alliance for Medical Image Computing National Alliance for Medical Image Computing: NAMIC Ron Kikinis, M.D.
Software Process for Distributed Teams KITWARE, Inc.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering End-user Platform Steve Pieper Isomics, Inc.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering End-user Platform Steve Pieper Isomics, Inc.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering Computational Platform Jim Miller GE Research.
NA-MIC National Alliance for Medical Image Computing IGT Software Design and Process Bill Lorensen GE Research.
NA-MIC National Alliance for Medical Image Computing NAMIC-Kit Update Will Schroeder Jim Miller Bill Lorensen.
NA-MIC National Alliance for Medical Image Computing Slicer for Neurosurgical Planning IBMSPS th Annual World Congress for Brain.
Collaborations and Architectures mBIRN Progress at BWH.
NA-MIC National Alliance for Medical Image Computing The NA-MIC Kit National Alliance for Medical Image Computing.
NA-MIC National Alliance for Medical Image Computing Algorithms MIT PI: Polina Golland.
NA-MIC National Alliance for Medical Image Computing NAMIC Engineering Activities September 8, 2005.
NA-MIC National Alliance for Medical Image Computing NA-MIC Software Engineering Bill Lorensen GE Research NA-MIC Engineering Core PI.
NA-MIC National Alliance for Medical Image Computing Why NITRC Matters to NA-MIC Steve Pieper, PhD.
NA-MIC National Alliance for Medical Image Computing National Alliance for Medical Image Computing: NAMIC: Core 6, Dissemination Steve.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering Highlights, Aims and Architecture Will Schroeder Kitware.
NA-MIC National Alliance for Medical Image Computing Core 1 & Core 3 Projects.
NA-MIC National Alliance for Medical Image Computing Shape Analysis and Cortical Correspondence Martin Styner Core 1 (Algorithms), UNC.
National Alliance for Medical Image Computing Slicer3 Status Update.
National Alliance for Medical Image Computing Project Week June 26-30, 2006 Participants: 56 NA-MIC (38), Collaborators (18) –NA-MIC:
Surgical Planning Laboratory Brigham and Women’s Hospital Boston, Massachusetts USA a teaching affiliate of Harvard Medical School Overview Ron Kikinis,
National Alliance for Medical Image Computing Programming Half-Week January 2006 Clinical/End-User Applications Rule Based Segmentation.
NA-MIC National Alliance for Medical Image Computing NA-MIC Core 2 Update: Kitware Will Schroeder Kitware NA-MIC Core 2 PI NA-MIC Core.
William Schroeder, Ph.D. §, Andy Cedilnik §, Sebastien Barré, Ph.D. §, William Lorensen ‡, James Miller, Ph.D. ‡, Daniel Blezek, Ph.D. ‡ § Kitware Inc.,
NA-MIC National Alliance for Medical Image Computing AHM: Dissemination Update Tina Kapur, Ph.D., Co-PI Steve Pieper, Ph.D., Co-PI.
NA-MIC National Alliance for Medical Image Computing Outreach Randy L. Gollub, MD, PhD Cores 5/6: Training & Dissemination Representing.
NA-MIC National Alliance for Medical Image Computing NAMIC UNC Site Update Site PI: Martin Styner Site NAMIC folks: Clement Vachet, Gwendoline.
NA-MIC National Alliance for Medical Image Computing The NA-MIC Kit: ITK, VTK, Pipelines, Grids and 3D Slicer as An Open Platform for.
NA-MIC National Alliance for Medical Image Computing NAMIC Software Development Workshop January 24-25, 2005 MIT Computer Science and.
NA-MIC National Alliance for Medical Image Computing National Alliance for Medical Image Computing: NAMIC Ron Kikinis, M.D.
Visualization and Computer Vision GE Research Niskayuna, NY.
National Alliance for Medical Image Computing NAMIC Milestones: October, 2005 Core 1 (Algorithms) –Developed prototypes for quantitative.
NA-MIC National Alliance for Medical Image Computing Isomics, Inc. Steve Pieper.
NA-MIC National Alliance for Medical Image Computing Process-, Work-Flow in Medical Image Processing Guido Gerig
National Alliance for Medical Image Computing Structure.
NA-MIC National Alliance for Medical Image Computing UNC Core 1: What did we do for NA-MIC and/or what did NA-MIC do for us Guido Gerig,
NA-MIC National Alliance for Medical Image Computing Slicer Update Jim Miller, Ph.D. Steve Pieper, Ph.D.
NA-MIC National Alliance for Medical Image Computing NA-MIC UNC Guido Gerig, Martin Styner, Isabelle Corouge
Neuroimage Analysis Center An NCRR National Resource Center NAC Engineering Core Steve Pieper, Core PI SPL; Isomics, Inc.
Slicer 3 Ron Kikinis, Steve Pieper. CTK Workshop Heidelberg, June 29/30, 2009 Slicer Goals  Stable, Usable, Cross Platform, End-User Software for Medical.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering Computational Platform Jim Miller GE Research.
Aerial Image Exploitation Change Detection Event Detection Object Tracking Region Classification Medical Image Analysis Automated Cancer Detection Automatic.
NA-MIC National Alliance for Medical Image Computing NAMIC UNC Site Update Site PI: Martin Styner UNC Site NAMIC folks: C Vachet, G Roger,
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering Data Management Stephen R. Aylward Kitware, Inc.
NA-MIC National Alliance for Medical Image Computing AHM 2006 Continuing Discussion of Validation.
NA-MIC National Alliance for Medical Image Computing 3D Slicer Version 3.0 and Diffusion MRI Steve Pieper, PhD.
NA-MIC National Alliance for Medical Image Computing NAMIC Software Development Workshop December 9-10, 2004 Surgical Planning Lab, Brigham.
NA-MIC National Alliance for Medical Image Computing NA-MIC Core 2 Update Isomics Steve Pieper Isomics, Inc. NA-MIC Engineering Isomics.
NA-MIC National Alliance for Medical Image Computing Engineering a Segmentation Framework Marcel Prastawa.
NA-MIC Experience Familiar with DTI algorithms and datasets: universal recipient –HUVA, Vetsa, Dartmouth, Susumu JHU datasets –Experience with Slicer and.
NA-MIC National Alliance for Medical Image Computing Slicer3 Update
NA-MIC National Alliance for Medical Image Computing Velocardiofacial Syndrome as a Genetic Model for Schizophrenia Marek Kubicki DBP2,
NA-MIC National Alliance for Medical Image Computing Slicer Progress in 2009 Steve Pieper, Ph.D.
NA-MIC National Alliance for Medical Image Computing UCSD / BIRN Coordinating Center NAMIC Group Site PI: Mark H. Ellisman Site Project.
NA-MIC National Alliance for Medical Image Computing Core 1b – Engineering Introduction Will Schroeder Kitware, Inc.
2007 Project Half Week ITK Registration Parallelization: Develop implementations of ITK registration methods to take advantage of multi-core and multi-processor.
Shape Analysis: Description &Framework Develop a generally applicable description for statistical shape analysis studies, as well as a computational framework.
Team Plan/Expected Challenges
Core 2 Progress Day 1 Salt Lake City
DLPFC Semi-automatic Segmentor: With minimal user interaction, this rule-based algorithm will segment the DLPFC from an input volume. This is a Slicer.
Laboratory of Neuro Imaging UCLA
NAMIC Software Development Workshop
Ron Kikinis, MD Professor of Radiology, Harvard Medical School
Will Schroeder, Kitware, Inc.
2006 Summer PrWeek Slicer3 for Image Guided Therapy (IGT): Convert vtkMRAblation and vtkFMRIEngine to Slicer3 modules. Team Plan/Expected Challenges/Publication.
LONI Pipeline Integration/ UNC shape analysis
Slicer Timeline GUI Thread Processing Thread
2006 Summer PrWeek Correspondence Based on Local Curvature: Developing methods in ITK for using local curvature features to establish population based.
Core 5: Training Randy Gollub, MD PhD Guido Gerig, PhD
Presentation transcript:

NA-MIC National Alliance for Medical Image Computing Programming Week Kickoff MIT, June 27, 2005

National Alliance for Medical Image Computing Setting the Stage… NAMIC Background – –The “Alliance Diagram”, the sites… –Who is here today (numbers) This week –Goals: What do we want to accomplish? –Mechanics: How are we going to get there? –Measuring Success: How will we know if we have arrived?

National Alliance for Medical Image Computing Structure

National Alliance for Medical Image Computing NAMIC Algorithms Core Harvard Georgia TechUNC UtahMIT Segmentation Registration Foundational Methods Structural Features and Statistics Connective Features and Statistics

National Alliance for Medical Image Computing NAMIC Engineering Core Isomics UCLA Software Integration Software Engineering Software Quality Software Engineering Tools Data Access Tools Distributed Computing Applications

National Alliance for Medical Image Computing NAMIC DBP Core Harvard Toronto Dartmouth UCI Segmentation Registration Foundational Methods Structural Features and Statistics Connective Features and Statistics

National Alliance for Medical Image Computing Number for Today: 44 People –32 NA-MIC 12 Core 1 (Algorithms) 14 Core 2 (Engineering) 1 Core 3 (Driving Biological Projects) 1 Core 4 (Service) 2 Core 5 (Training) 1 Core 6 (Dissemination) 1 Core 7 (Leadership) –12 Collaborators (BWH, Stanford, SRI)

National Alliance for Medical Image Computing Number for Today: 17 Projects 1.Non-rigid EPI registration using ITK (Snyder, Tuch, Ibanez) 2.Prototype ITK system for Quantitative Fiber Tract Analysis (Goodlett, Tao, Corouge,Maddah,Mewes) 3.Processing modules and visualization tools for shape analysis (Oguz, Xu, Styner, Miller) 4.Object population description and general feature analysis framework (Styner,Fletcher,Miller) 5.Addition of Bayesian Segmentation Module to ITK (Melonakos, Ibanez) 6.Wrap motion robust matching code using ITK (Khidhir, Warfield, Archip, Lorensen) 7.DLPFC Semi-Automatic Segmentor (Al-Hakim, Yarmakovich) 8.Flux Diffusion in ITK (Krissian) 9.ITKu, minimalist command line tools using ITK (San-Jose Estepar) 10.nrrd ITK IO, read and write nrrd tensor data with ITK (Kindlmann) 11.Slicer DTMRI module nightly testing (O'Donnell, San-Jose Estepar, Cedilnik) 12.ITK Wrap Intensity Correction and Normalization Methods (Weisenfeld, Warfield) 13.LONI pipeline for UNC script based shape analysis pipeline (Styner, Oguz, Rajendiran) 14.3D Adaptive Tetrahedral Mesh Generation in ITK (Fedorov, Chrisochoides, Warfield, Schroeder) 15.2D/3D Point landmark detection in ITK (Lloyd, Warfield) 16.Large Scale Algorithm Job Submission via Condor (Gerk, Grethe, Pieper) 17.Pipelining ITK modules (Rajendiran, Pieper) 18.Slicer 3.0 (Pieper)

National Alliance for Medical Image Computing This Week: Goals Individual Project Goals NA-MIC Goals –Establish cross-core working teams –Share results, plan publications –Plan software architecture improvements –Follow-up at All-hands-meeting, Jan , 2006.

National Alliance for Medical Image Computing This Week: Mechanics Where –Mon-Tue: Building 32 (Star, Kiva) –Wed-Thurs-Friday: Building 34 (4 th floor, Grier) Time –8:30am breakfast, 9am session,5:30pm wrap up –coffee 10:30am, lunch noon, coffee 3:30pm –Tuesday 6:30-8:30pm Dinner/Discussion (Bldg 32, R&D Dining) –Wednesday afternoon: tour Boston (optional) –End of meeting: Friday at 12:30pm. Every day: –All meet at 9am, then breakout into teams, meet again at 5pm Thursday 9am: highlights

National Alliance for Medical Image Computing This Week: Mechanics (contd) Projectors Ring the bell Slicer 3.0 Discussion People to bug: Bill, Will, Steve, Luis, Jim, Tina

National Alliance for Medical Image Computing This week: Measuring Success Short-term (Yr1-2) –Each team member aware of what scientific questions we are trying to answer in NA-MIC… –Add “NA-MIC” modules to ITK/Slicer Medium term (Yr2-3) –Employ these modules to study scientific questions… –Publish results –Improve the software infrastructure to aid the answering of these questions Longer term (Yr 3-5) –Repeat with a new set of clinical questions (DBP)

National Alliance for Medical Image Computing Rest of today: (~10 min) Dave Tuch – Gathering Requirements… (~10 min) Sonia Pujol – Training Documents (~5 min each) Individual Project 3-Block Summary 3:30-4pm Coffee 4-5:30pm Setup programming environment 5:30-6pm Meet back here for wrap-up