myQA iON efficient & task-based workflow

myQA® iON
for Radiation Therapy

Combined Efficiency for Patient QA

Log files powered by best-in-class Monte Carlo

  • Powerful combination of best-in-class SciMoCa™ Monte-Carlo dose calculation and log files
  • Task based automation for optimized workflow efficiency
  • Fast analysis of all sources of possible errors for increased patient safety
  • Now available: pairing with ScandiDos® Delta4 phantom+® for your 3D measurements


Contact us for your individual solution!
Begin Benefit

Proven efficiency, accuracy, and safety in Radiation Therapy

myQA® iON is your distinctive, independent secondary dose Patient QA software environment. It combines log files with a best-in-class SciMoCa™ Monte Carlo algorithm in an accurate and efficient workflow. Quickly and independently assess dose distributions to identify any potential errors or deviations. Validate your most demanding treatment techniques while ensuring patient safety without compromise.

The pairing of myQA® iON and ScandiDos® Delta4 Phantom+® provides you with a unique dual-purpose solution for your pre-treatment and treatment dose verification for all currently available treatment methods and linacs.

myQA iON offers you:

  • Fully automated 3D plan verification workflow
  • Easy identification of any sources of errors using the SciMoCa Monte Carlo algorithm and log files
  • Use of daily logs to explore the relevance of dose deviations from the treatment planning software or delivery system
  • Delivery of even the most complicated treatments with confidence
  • Measurements with the most accurate 3D verification system

Workflow diagram showing how DICOM data, log files, and measured data are utilized in myQA iON

Combined Monte Carlo and log file Patient QA

myQA iON combines machine log files with a Monte Carlo algorithm from the beginning to the end of your patient treatments. 

  • Achieve accuracy on par with the most advanced TPS systems with the SciMoCa™ Monte Carlo Algorithm
  • Perform your pre-treatment QA with the SciMoCa Monte Carlo algorithm
  • Validate delivered dose during treatment with the SciMoCa Monte Carlo algorithm combined with log files 
  • Prepare for an adaptive future with tools such as plan complexity analysis

Efficient task-based workflow

myQA iON has an optimized, automated workflow to save time and speed up your QA process.

  • Speed up your QA process with automated dose calculations, in the background
  • Assign tasks to specific users with the optimized patient or task lists view
  • Identify any potential errors or dose deviations using advanced, yet easy to use, tools

Safe delivery of patient treatment

To ensure accurate and unbiased QA results, a system is required that is unbiased and independent from the treatment planning system vendor. 

  • Utilize all DICOM information from your based treatment planning systems
  • Analyze your results using advanced 3D tools such as DVH’s and clinical goals
  • Identify the source of any potential dose deviations or errors
  • Understand the clinical relevance and source of potential deviation and errors


myQA® iON provides a high level of automation and an easy overview of all patient QA tasks. We added some scripts to our TPS to automatically send the DICOM data to myQA iON as soon as a plan is approved. myQA iON calculates the dose and evaluates the data during the preparation work inside the OIS automatically; this speeds up our QA. When we finish prep, the QA is ready. The Monte Carlo algorithm provides high specificity and sensitivity to capture real clinical errors. myQA iON's accuracy and performance give us high confidence in our patient QA processes. With the log file analysis, we can track the given dose of the accelerator. This happens automatically in the background.” Dr. Stephan Dröge, Chief Medical Physicist, Lung Clinic Hemer, Germany


“The software environment shows all the patient QA tasks and workflow steps in one interface, which makes our lives much easier. The automation of the workflow saves me a lot of time and speeds up patient QA considerably, yet still provides comprehensive analysis and supreme Monte Carlo dose accuracy. The myQA iON software allows for full automation but I have the freedom to maintain control of the functionality.” Lourens Strauss, Medical Physicist, University of the Free State, Bloemfontain, South Africa.


How long does the MC calculation take based on plan type?

  • Between 10 seconds for 3D CRT plans to 4 minutes for multiple arc VMAT treatments for large calculation volumes assuming dose grids of 2-3 mm and Monte Carlo uncertainty of 0.5 to 1 % on the recommended hardware
  • Lower values of Monte Carlo uncertainty and fine calculation grid will increase calculation times
  • Here are some examples of the real calculation times for clinical cases:
    • VMAT prostate with lymph nodes, 2 full arcs: 3 mm gris size, 1% MC uncertainty  - 39 seconds
    • VMAT chestwall and lymph nodes, 2 partial arcs: 2 mm grid size, 2% MC uncertainty - 37 seconds
    • VMAT whole brain with multiple mets, 3 full arcs and one partial
      3 mm grid size, 2% MC uncertainty - 18 seconds
      2 mm grid size, 1%  MC uncertainty - 2 min 30 seconds

Where is this product installed? Is there any management of individual clients needed?

myQA iON is installed on a dedicated server fulfilling the minimum requirements. There is no need to manage any individual clients as it is a web application and can be accessed from any workstation in the same network with the server from supported web browsers.

What is gained by having myQA iON process my RT logs? How is that different from the initial Monte Carlo calculation?

  • The initial Monte Carlo secondary dose check provides comprehensive QA for all aspects of the plan creation workflow starting from density corrections, HU definitions through the beam model and algorithm evaluation under real clinical conditions to the final MU and dose check with the scoring of the plan complexity.
  • In the logs workflow we provide on the daily basis QA for the actual mechanical delivery aspects, as RT logs contain information about actually delivered positions of the MLC, jaws and gantry together with actual MU data. All the logs information is then processed and represented as daily QA dose distribution on the patient CT.
  • By combining both tools, all Linac and TPS specific errors can be distinguished, detected and analyzed, which is a unique offering compared to phantom-based QA methods and can be performed for every treatment fraction.

Does myQA iON have dose comparison tools such as DVH or others?

myQA iON offers the following tools for your Patient QA:

  • 3D gamma analysis in patient geometry and gamma histogram
  • 3D dose difference display in patient geometry
  • Independent MU and point dose check verification
  • Beam geometry display
  • Plan complexity scoring
  • Dose-volume histogram and DVH statistics table
  • Clinical goals table with DVH criteria

Clinical References

Explore more

Evaluation of 4-Hz log files and secondary Monte Carlo dose calculation as patient-specific quality assurance for VMAT prostate plans 

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Validation of the Acuros XB dose calculation algorithm versus Monte Carlo for clinical treatment plans

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Validation of a secondary dose check tool against Monte Carlo and analytical clinical dose calculation algorithms in VMAT

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"Utilizing Log Files For Treatment Planning And Delivery QA In Radiotherapy" (2019).

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PO-0805: commissioning of the new Monte Carlo algorithm SciMoCa for a VersaHD LINAC. Radiother Oncol. 2017;123:S429-S430. 

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Commissioning and clinical implementation of the first commercial independent Monte Carlo 3D dose calculation to replace CyberKnife M6™ patient‐specific QA measurements

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A Monte Carlo Model of a Compact Radiosurgery System for Patient-Specific Quality Assurance and Validation of TPS Base Data 2022 RSS Scientific Meeting March 04, 2022 - March 06, 2022

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Assessment of SciMoCa as a second dosimetry check in the clinical routine practice

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Monte Carlo secondary plan check: validation and definition of the action limits for Patient QA

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Evaluation of machine log files/MC‐based treatment planning and delivery QA as compared to ArcCHECK® QA

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Supported systems

Treatment techniquesAll photon and electron treatment techniques _3D–with and without wedged fields
_SBRT, SRS, SRS cones
Treatment machinesElekta® – all C-arm machines
Varian® – all C-arm machines
Varian® – Halcyon® and Ethos™
Accuray® – Radixact® & TomoTherapy®

CyberKnife®, Zap-X® and MR-linac compatibility coming soon
_All photon and electron energies supported
_All MLC devices supported
_Both custom and standard beam models supported
_Log files supported: .ivx, trajectory logs, DynaLog
Treatment Planning SystemsAll TPS capable of DICOM-RT export 

Recommended Server Requirements

CPU24 cores
Operating SystemWindows Server 2016 or 2019
Supported Web-Browser Chrome™, Firefox™
Free Hard Disk Space2× 6TB HDD drives
End Benefit

# All product and company names are trademarks™ or registered® trademarks of their respective holders. Use of them does not imply any relationship, sponsorship, or endorsement between IBA or its products and the owners of these trademarks. 

Check out the workflow of myQA iON

myQA iON with Delta4

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