iplan RT Image Advanced Contouring Workstation - Driving Physician Collaboration

Similar documents
SMARTBRUSH. Version 2.5. Software User Guide Revision 1.0. Copyright 2016, Brainlab AG Germany. All rights reserved.

radiotherapy Andrew Godley, Ergun Ahunbay, Cheng Peng, and X. Allen Li NCAAPM Spring Meeting 2010 Madison, WI

Virtual Phantoms for IGRT QA

Leksell SurgiPlan. Powerful planning for success

Creating a Knowledge Based Model using RapidPlan TM : The Henry Ford Experience

ADVANCING CANCER TREATMENT

Leksell SurgiPlan Overview. Powerful planning for surgical success

Using a research real-time control interface to go beyond dynamic MLC tracking

OBJECT MANAGEMENT OBJECT MANIPULATION

ADVANCING CANCER TREATMENT

IMRT site-specific procedure: Prostate (CHHiP)

Is deformable image registration a solved problem?

VALIDATION OF DIR. Raj Varadhan, PhD, DABMP Minneapolis Radiation Oncology

State-of-the-Art IGRT

Oncentra Brachy. Anatomy-based treatment planning for HDR/PDR brachytherapy

Auto-Segmentation Using Deformable Image Registration. Disclosure. Objectives 8/4/2011

ICARO Vienna April Implementing 3D conformal radiotherapy and IMRT in clinical practice: Recommendations of IAEA- TECDOC-1588

IMSURE QA SOFTWARE FAST, PRECISE QA SOFTWARE

UvA-DARE (Digital Academic Repository) Motion compensation for 4D PET/CT Kruis, M.F. Link to publication

Advanced Targeting Using Image Deformation. Justin Keister, MS DABR Aurora Health Care Kenosha, WI

Help Guide. mm Copyright Mirada Medical Ltd, Mirada Medical RTx 1

PCRT 3D. Scalable Architecture System. User-Friendly. Traceable. Continuos Development

Using Pinnacle 16 Deformable Image registration in a re-treat scenario

ROBUST OPTIMIZATION THE END OF PTV AND THE BEGINNING OF SMART DOSE CLOUD. Moe Siddiqui, April 08, 2017

DICOM Conformance Statement RT Elements Document Revision 5 December 14, Copyright Brainlab AG

Automatic Segmentation of Parotids from CT Scans Using Multiple Atlases

Coverage based treatment planning to accommodate organ deformable motions and contouring uncertainties for prostate treatment. Huijun Xu, Ph.D.

7/31/2011. Learning Objective. Video Positioning. 3D Surface Imaging by VisionRT

Interoperability Issues in Image Registration and ROI Generation

TG 132: Use of Image Registration and Fusion in RT

Head and Neck Lymph Node Region Delineation with Auto-segmentation and Image Registration

DICOM Conformance Statement RT Elements Document Revision 3 January 19, Copyright Brainlab AG

Good Morning! Thank you for joining us

Secondary 3D Dose QA Fully Automated using MOSAIQ's IQ Engine. MOSAIQ User Meeting May Antwerp

ADAPTIVE HYBRID SURGERY ANALYSIS

1. Learn to incorporate QA for surface imaging

3D Slicer Overview. Andras Lasso, PhD PerkLab, Queen s University

TomoTherapy Related Projects. An image guidance alternative on Tomo Low dose MVCT reconstruction Patient Quality Assurance using Sinogram

Acknowledgments. Ping Xia, Ph.D., UCSF. Pam Akazawa, CMD, UCSF. Cynthia Chuang, Ph.D., UCSF

MapCHECK 2 & 3DVH. The Gold Standard for 2D Arrays

Dosimetric Analysis Report

MapCHECK 2 & 3DVH The Gold Standard for 2D Arrays

The Advanced Neuro MR Processing & Visualization Solution

LEAD LOCALIZATION. Version 1.0. Software User Guide Revision 1.1. Copyright 2018, Brainlab AG Germany. All rights reserved.

PET/CT multimodality imaging for radiotherapy planning in lung cancer The medical physicist point of view Isabelle Gardin Rouen CHB and Quant.I.

Fiber Selection from Diffusion Tensor Data based on Boolean Operators

Clinical Prospects and Technological Challenges for Multimodality Imaging Applications in Radiotherapy Treatment Planning

Initial Clinical Experience with 3D Surface Image Guidance

VIEW PRO 4D. four dimensions in one workstation

Overview of Proposed TG-132 Recommendations

Image Guidance and Beam Level Imaging in Digital Linacs

PyCMSXiO: an external interface to script treatment plans for the Elekta CMS XiO treatment planning system

Use of Deformable Image Registration in Radiation Therapy. Colin Sims, M.Sc. Accuray Incorporated 1

8/4/2016. Emerging Linac based SRS/SBRT Technologies with Modulated Arc Delivery. Disclosure. Introduction: Treatment delivery techniques

REAL-TIME ADAPTIVITY IN HEAD-AND-NECK AND LUNG CANCER RADIOTHERAPY IN A GPU ENVIRONMENT

multimodality image processing workstation Visualizing your SPECT-CT-PET-MRI images

Feasibility of 3D Printed Patient specific Phantoms for IMRT QA and Other Dosimetric Special Procedures

MR-guided radiotherapy: Vision, status and research at the UMC Utrecht. Dipl. Ing. Dr. Markus Glitzner

TRAJECTORY- BASED TREATMENT PLANNING AND DELIVERY FOR CRANIAL RADIOSURGERY

Data. ModuLeaf Mini Multileaf Collimator Precision Beam Shaping for Advanced Radiotherapy

CHAPTER 9 INFLUENCE OF SMOOTHING ALGORITHMS IN MONTE CARLO DOSE CALCULATIONS OF CYBERKNIFE TREATMENT PLANS: A LUNG PHANTOM STUDY

The IORT Treatment Planning System. radiance. GMV, 2012 Property of GMV All rights reserved

A Workflow Optimized Software Platform for Multimodal Neurosurgical Planning and Monitoring

CONTOURING ACCURACY. What Have We Learned? And Where Do We Go From Here? BEN NELMS, PH.D. AUGUST 15, 2016

Methodological progress in image registration for ventilation estimation, segmentation propagation and multi-modal fusion

Monaco VMAT. The Next Generation in IMRT/VMAT Planning. Paulo Mathias Customer Support TPS Application

ThE ultimate, INTuITIVE Mr INTErFAcE

Deviceless respiratory motion correction in PET imaging exploring the potential of novel data driven strategies

FAST, precise. qa software

THE WIRELESS PHANTOM PERFORM ACCURATE PATIENT QA IN LESS TIME THAN EVER!

Advanced Radiotherapy

Computational Medical Imaging Analysis Chapter 4: Image Visualization

NEW METHOD OF COLLECTING OUTPUT FACTORS FOR COMMISSIONING LINEAR ACCELERATORS WITH SPECIAL EMPHASIS

GPU applications in Cancer Radiation Therapy at UCSD. Steve Jiang, UCSD Radiation Oncology Amit Majumdar, SDSC Dongju (DJ) Choi, SDSC

Non-rigid registration methods assessment of 3D CT images for head-neck radiotherapy

A design of a DICOM-RT-based tool box for nonrigid 4D dose calculation

PACS on Mobile Devices

RTx Release Notes. Communicate any known limitations for the RTx release. Provide information on certain product features.

IMRT and VMAT Patient Specific QA Using 2D and 3D Detector Arrays

better images mean better results

fmri/dti analysis using Dynasuite

Commissioning of MR-only simulation for radiotherapy planning

Lucy Phantom MR Grid Evaluation

Image Co-Registration II: TG132 Quality Assurance for Image Registration. Image Co-Registration II: TG132 Quality Assurance for Image Registration

Volumetric Modulated Arc Therapy - Clinical Implementation. Outline. Acknowledgement. History of VMAT. IMAT Basics of IMAT

The MSKCC Approach to IMRT. Outline

SlicerRT Image-guided radiation therapy research toolkit for 3D Slicer

A fluence convolution method to account for respiratory motion in three-dimensional dose calculations of the liver: A Monte Carlo study

2 Michael E. Leventon and Sarah F. F. Gibson a b c d Fig. 1. (a, b) Two MR scans of a person's knee. Both images have high resolution in-plane, but ha

The team. Disclosures. Ultrasound Guidance During Radiation Delivery: Confronting the Treatment Interference Challenge.

Walk Through of CERR Capabilities. CERR: Introduction. Outline. Getting CERR: Control Panel. Documentation Support Community

EduCase TM EduCase TM Features. Covers all aspects of EduCase TM features and supporting components.

Tumor motion during liver SBRT

Integrated proton-photon treatment planning

Tomotherapy archive structure and new software tool for loading and advanced analysis of data contained in it

Using Probability Maps for Multi organ Automatic Segmentation

syngo.mr Neuro 3D: Your All-In-One Post Processing, Visualization and Reporting Engine for BOLD Functional and Diffusion Tensor MR Imaging Datasets

DICOM VIEWER. Version 3.2. Software User Guide Revision 1.1. Copyright 2017, Brainlab AG Germany. All rights reserved.

Evaluation of 3D Gamma index calculation implemented in two commercial dosimetry systems

Development and validation of clinically feasible 4D-MRI in radiotherapy

Transcription:

iplan RT Image Advanced Contouring Workstation - Driving Physician Collaboration The iplan Contouring Workstation offers unique and innovative capabilities for faster contouring and consistent segmentation outcomes. Using the automatic features and optimized workflow guidance, physicians are able to define anatomical objects and treatment volumes in just a few minutes. Objects are created with greater accuracy and consistency in comparison to manual slice-by-slice contouring, setting the foundation for better radiotherapy treatment planning. With iplan RT Image, pre-planning steps such as image fusion and definition of organs at risk are now fully automatic, saving time and increasing accuracy. Full DICOM RT connectivity enables the exchange of contours with existing dose treatment planning systems Optional remote treatment planning, anywhere, anytime, is possible when combined with iplan Net Screenshots iplan Automatic Image Fusion With iplan RT Image, fully automatic image fusion merges all available anatomical information into one view - providing physicians with a complete overview and full confidence in defining targets in seconds. Automatic Image Fusion and display of multiple data sets Including: CT, MR, fmri, DTI, PET, Angio) Seen as best in class image fusion One-Click fully automatic image fusion in 5 seconds Applicable for cranial, extracranial and H&N* Fast and proven Mutual Information algorithm Compensation of different slice distances and angular mis-alignments of modalities Combines multiple data sets for comprehensive target definition Validation of a Method for Automatic Image Fusion (BrainLAB System) of CT Data and 11C-Methionine PET Data for Stereotactic Radiotherapy Using a Linac: First Clinical Experience Anca-Ligia Grosu, M.D., Rainer Lachner, Ph.D., et.al.; Int. J. Radiation Oncology Biol. Phys., Vol. 56, No. 5, pp. 1450 1463, 2003 brainlab.com Page 1 of 5

iplan Atlas-Based Automatic Segmentation With the unique atlas-based Organ Segmentation, iplan RT Image uses an advanced elastic fusion to automatically contour all required anatomical objects in less than 2 minutes with a single mouse-click. Automatic atlas segmentation is available for cranial, spine and prostate cases. BrainLAB will continue to lead in automatic segmentation with the release of the head & neck lymph level atlas, which includes over 45 objects. Innovative head and neck atlas includes RTOG and EORTC lymph node level guidelines* Includes Lymph Level 1-5 Potential to save hours of contouring time with more consistent outcomes Faster contouring with unique, atlas-based Automatic Organ Segmentation Clinical Validation of Automated Prostate Segmentation in iplan Image Charles Enke, M.D.; Timothy D. Solberg, Ph.D., Department of Radiation Oncology University of Nebraska Medical Center; Nebraska Medical Center Omaha, NE *CT-based delineation of lymph node levels and related CTVs in the node-negative neck: DAHANCA, EORTC, GORTEC, NCIC, RTOG consensus guidelines V. Grégoire, P. Levendag et.al; Radiotherapy and Oncology 69 (2003) 227 236 iplan RT 4-D CT Morphing Advanced 4-D CT image handling module that allows the import of raw respiratory CT images for lung treatments. The user can then fuse, contour and enhance multiple data sets with automatically morphed target volumes Interactive movie demonstrates respiration cycle and movement of tumor for better dose coverage 4-D Morphing of contours mean less user interaction and automated target volume definition Offers the possibility to create more realistic GTV objects for more accurate treatment or gating It has been shown that 4D imaging helps to reduce the artifacts resulting from patient motion, thus leading not only to a more accurate delineation of target and critical structures as well as the potential for higher dosage. brainlab.com Page 2 of 5

iplan Smart Contouring Tools Including: Smart Brush and Smart Shaper Smart Brush The Smart Brush contouring wand provides easy automatic target delineation for even the most complex shaped structures. Selecting the contour in the first slice and the last slice, iplan RT Image linearly interpolates the slices in between and provides a fast recreation of 3D volumes. Automatic interpolation and gray value detection Sensitive brush settings for fast contouring Smart Shaper The Smart Shaper elastic brush allows an added level of object manipulation that goes beyond anything else available in the market. This extremely unique tool elastically stretches and shrinks contoured objects in Axial, Coronal and Sagittal views at one time for the intelligent update of objects in 3-Dimensional space. Adjustable brush settings for any shape object Possibility to deform and move objects in 3D FiberTracking and BOLD MRI Mapping This unique combination of functional MRI imaging with DTI FiberTracking can lead to better protection of cortical function when set as risk organs. Offers image processing for motoric and speech functional areas for improved localization Functional areas convert to 3D structures for seamless integration into surgical navigation Completely unique in the market provides increased knowledge during target definition Visualization of the Pyramidal Tract in Glioma Surgery by Integrating Diffusion Tensor Imaging in Functional Neuronavigation Christopher Nimsky, Oliver Ganslandt, et al. Zentralbl Neurochir 2005; 66: 133 141 brainlab.com Page 3 of 5

PET Imaging SUV (Standard Uptake Value) Software feature that gives the user advanced interface in defining target volumes within PET imaging. SUV can be clearly identified through threshold segmentation Hounsfield Unit (HU) reassignment possible for all outlined objects Comprehensive Object Manipulation In order to better prepare organs at risk (OARs) for dose treatment planning, advanced tools are needed to enhance those organs. iplan RT Image makes this fast and precise with in-depth 3-D object handling for fast generation of planning objects. Symmetric or asymmetric object manipulations - expand CTV to PTV Optimize OARs for dose planning Creation of rectum / bladder wall objects for correct DVH evaluation Easy unification of structures and creation of intersections or subtractions and object splitting for easy boost planning brainlab.com Page 4 of 5

Dicom RT iplan RT Image The Global Contouring Workstation Making revolutionary tools available for existing TPS iplan RT Image Quick and consistent organ definition Automatic Image Fusion Atlas-based Automatic Segmentation Organ manipulation SRS/SRT planning system Global contouring workstation for RT Workflow Report iplan RT Contouring Workstation - Eclipse Example workflow for H&N patients. Objects created with iplan RT and exported via Dicom RT to Eclipse followed by IMRT Dose planning. As implemented at the Charité, Berlin, Germany Existing TPS workstation Eclipse, ADAC, CMS, Pinnacle and BrainLAB used for dose planning only Frees time of dose planning workstation Protects investment Physician Collaboration- For the Entire Department and Across the Hospital With full DICOM RT connectivity, iplan functionality is available for existing conventional treatment planning systems, allowing iplan RT Image to be used as the pre-planning tool for the entire department. iplan from BrainLAB offers one software platform for: Radiosurgery, Radiotherapy, Neurosurgery and Drug Delivery Pre-planning steps are fully automatic, saving time and increasing accuracy Unique atlas-based organ segmentation, using advanced elastic fusion Automatically contours important anatomical objects within 3 minutes Integration of FiberTracking with functional MRI helps save vital functions Dicom compatibility for connectivity with third party TPS for ultimate flexibility Clinical Experience The iplan RT Image Cranial Automatic Segmentation software automatically contours all necessary organs within 2-3 minutes. Compared to standard manual contouring tools, this software not only helps us save time, it also allows definition of risk structures with a much higher degree of day to day consistency. Ian Crocker MD FACR, Professor of Radiation Oncology, Emory University School of Medicine, Atlanta, GA iplan Net Planning Anywhere and Anytime Team Planning Option My office is on the first floor, and our physics department is in the basement. With iplan Net I am able to save time by not having to walk down to Physics every time I want to approve a plan. The possibility to access iplan from outside of the department was a key factor that drove the decision for iplan Net. This solution helps us to improve the quality of treatment for our patients by making interdisciplinary consulting within the hospital much easier, Dr. Charles Niël, Radiation Oncology Department Chairman Reinier de Graaf Gasthuis, Hospital, Delft, Netherlands brainlab.com Page 5 of 5