Automatically or semi-automatically inspect your parts with a recurring analysis pattern:
- Fully automated, in-line: 100% inspection in industrial production
- Fully or semi-automated, at-line: small batch series inspection in industrial production or quality labs
- Semi-automated: sample tests in quality labs or at service providers

Packages & bundles
VGinLINE is available in pre-configured packages designed for the most common tasks across various industries, offering considerable savings compared to purchasing individual modules separately.
Each package includes a VGinLINE license, selected add-on modules, and a one-year update/service agreement.
For metrology and quality control across a broad range of industries
Includes these add-on modules:
- Coordinate Measurement
- Nominal/Actual Comparison
- Wall Thickness Analysis
For casting and injection moulding (e.g., in the automotive and aerospace industry)
Includes these add-on modules:
- Coordinate Measurement
- Nominal/Actual Comparison
- Wall Thickness Analysis
- Porosity/Inclusion Analysis
For the inspection of batteries, including finding and quantifying porosity, inclusions, anode overhang, and delamination
Includes these add-on modules:
- Coordinate Measurement
- Nominal/Actual Comparison
- Wall Thickness Analysis
- Porosity/Inclusion Analysis
- Battery Analysis

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Define and apply visualization and workspace settings as "Views" for individual objects, enhancing project navigation and report generation. Easily transfer these views between objects and incorporate them into evaluation templates for streamlined automation.

Enhance your reports with interactive 3D color overlays for geometric tolerances, facilitating a better understanding of numerical results.

Streamline data processing with the new .xvgi file format, eliminating the need for manual data import. Utilize our Python reference implementation to automate VG software use, even without existing .vgl files.

Focus on actual deviations with auto-scaled color mapping that excludes outliers. This ensures color overlays provide valuable part evaluations without distortion.

The selected color overlay and "Show components only" checkbox are now stored and applied to all automated image generation functions including bookmarks, animations, and object-specific views. This enhances your options for reports and presentations.

Designed especially for cases where multiple parts are scanned together, this intuitive feature allows users to easily divide the original volume data into individual volume objects. Beyond simplifying your workflow, this tool offers options for powerful segmentation, naming, and data reduction methods. Plus, automation has never been easier, with built-in features to detect missing parts and generate unique project files for each separated object.

Q-DAS export for relative wall thickness results
Elevate your data analytics with seamless exporting of toleranced relative wall thickness results in Q-DAS format. Enjoy superior compatibility and integration with the Q-DAS product family.
Easier navigation of PDF reports
PDF reports now also include a table of contents with direct links to the related section of the report. Enhance your user experience and swiftly peruse your reports with this clever addition.

When you move or rotate a region of interest (ROI) or copy it from another object, its mask may not be aligned with the voxel grid of the parent volume. This useful feature allows you to see this status at a glance in the Scene Tree or in the object properties. One click is enough to get the ROI aligned, an action that can also be recorded for automated scenarios.

In this video, we will show you how to perform the analyses required for fixture simulation, record the necessary macros, and combine the macros to a job that you can eventually run in VGinLINE.
Click here to watch the video tutorial.

Introducing a game-changer in deviation analysis: Use your nominal part to tolerance wall thickness deviations on CT scans of the actual part. No more guessing games about wall thickness, no more relying on absolute values of the wall thickness sphere calculation.
Visualize, tolerance, report, and evaluate the real deviations between your nominal part and the actual scan. Leverage our unique adaptive transformation technology to ensure that calculated deviations correspond accurately to surface points on both your nominal and actual parts.

This innovative, machine-learning-based solution is tailored for noisy, low-quality data, and therefore can handle fast CT scans.
Saves time: Simplified processing lets you load data, select the model, calculate, and apply the resulting regions of interest for subsequent analyses – all in a few steps.
Ideal for automation: Designed with user convenience in mind, our Deep Segmentation tool fits seamlessly into automated inspection workflows.
Supports industry standards: The Deep Segmentation module is compatible with the industry-standard ONNX model format, empowering you to utilize problem-specific and data-specific deep learning models.

Selecting objects is more intuitive than ever: Just pick your tool of choice — rectangle, ellipse, or lasso – and directly draw in the 3D window. As soon as an object’s center of mass is highlighted, the object will be selected in the Scene Tree. Add or remove objects directly in the 3D window – WYSIWYG.

Instant tolerance status: Instantly view the tolerance status of each pore in an intuitive color-coded format. Simply select the tolerance status as "Active column" and identify the status visually using green (in-tolerance) and red (out-of-tolerance).
Quick surface determination: Forgot to execute a surface determination before starting your porosity analysis? No problem! Our new shortcut in the analysis window allows you to create a default surface determination suited specifically for porosity and inclusion analyses, ensuring a smoother, uninterrupted workflow.

When speed is more important than exactness when using our Paint & Segment tool, reduce the resolution and get your segmentation much faster.
Opt for half resolution, and watch the segmentation run about 8x faster — freeing up valuable time for your other important tasks.

Enable or disable ROI rendering for numerous objects simultaneously! Enjoy better automation scenarios, with the toggle macro step now distinctively separated into two clear steps: "Enable ROI rendering" and "Disable ROI rendering". This ensures better reproducibility of macro jobs for a more streamlined user experience.

This dynamic feature utilizes the color bar settings configured directly in the analyses, offering an enriched context to interpret results in your reports. Elevate your reporting experience and data interpretation capacity with this unique update.

Color-code table cells in reports according to their tolerance state
You can now opt to color-code individual cells based on their tolerance status. This instant visual representation not only enhances the meaning of your result tables but also allows for quicker identification of specific indicators that caused a part to be out of tolerance. A more meaningful, intuitive understanding of your data is just a color away!
Hide info field names in reports
You can choose to hide the title of any info field in your report. This feature not only allows for seamless integration with any personalized text but also contributes to creating more succinct report pages. Enjoy more control and design freedom with our refined reporting settings.
Invalidation of bookmark images on analysis changes
Bookmark images are now tagged with an "out-of-sync" status if analysis results change. For automated scenarios, all "out-of-sync" images undergo an automatic update before saving, ensuring that the bookmark images reflect the current state of your project accurately. Experience improved visibility and control over your data with this dynamic update.
Rename objects using metainformation
You can now rename objects using one of their metainformation fields. Ideal for use in macros, this function can transfer text read from an object via OCR to its name in automation scenarios. Experience elevated control and efficiency in your data management with this latest feature enhancement.

Our new upgrade allows for macro recording of placing the fixtured object within the scene, facilitating seamless fixture simulation in fully automated workflows.

Users can now run the application and create reports in Italian, Spanish, and Russian.

You can now measure linear sizes that require the use of rank order modifiers (for example, for the calculation of an average size) or the use of the ACS (arbitrary cross-section) modifier for the calculation of size measurements in any cross section.
Measurement tasks according to ISO 14405-1 that require the use of these modifiers can now be easily performed by choosing the appropriate modifier symbols in the "Linear sizes" dialog.

Our revamped OCR analysis significantly enhances the automatic text recognition capabilities of VGSTUDIO MAX and VGinLINE and comes with improved result customization options and reporting support. ASCII text on components will automatically be recognized and translated into the object's metainformation for use in inspection plans or reports.
While you will no longer be able to create new instances of the old OCR analysis, any inspection plans and evaluation templates that contain them will continue to work. We strongly recommend that you switch to the new OCR analysis as the outdated version will no longer be available with software release 2025.2.

You can now create regular elements for circles and two parallel opposing lines in a 2D view and use them for linear size measurements and various geometric tolerances. This is especially useful when you have to measure linear sizes in a specific cross section (SCS) of an element.

- The new "Automatic" mode for the "Analysis area" will consider the surface determination settings. This will make your daily work with the porosity/inclusion analysis faster and less error-prone.
- The visualization of pores is now by default set to "Render outline only" so you can still see the gray values of the detected pores.
- With the new default report preset "Big five," you will get images of the five largest deviations in your standard report. If you want to have more, less, or just the deviations that exceed a certain value, you can simply customize the rule on the "Rules" tab of your porosity/inclusion analysis.
- To keep the dialog of your porosity/inclusion analysis tidy, only functionally relevant tabs will be shown.
- We extended the accurate voxel-based calculation of the "true gap" between pores: you can now tolerance the real distance between pores by setting a tolerance for the "Gap" parameter

If your data is very noisy, VGEasyPore might detect plenty of noise particles. By activating the "Noise reduction" option in the VGEasyPore dialog, you can filter out noise from the very beginning. This makes it easier for you to adjust the parameters for successfully detecting porosity or inclusions.
And – unless you evaluate large amounts of tiny noise particles – the porosity/inclusion analysis can in many cases be much faster!

When you perform a VGEasyPore analysis on a small ROI (region of interest) – for example, when there are multiple components in the CT scan and you want to perform the analysis only on one of them – VGEasyPore will now run faster than before, depending on how much of the full scan data is covered by the selected single component.

When series-testing the anode overhang in battery cells with the Battery Analysis module of VGSTUDIO MAX, you can now export the toleranced anode overhang properties in Q-DAS format. This allows you to use the analysis results in the Q-DAS software for statistical process control, for example, for process or machine capability analysis or for monitoring the results over time (trend analyses).

The computation of deformation fields can now be automated via macro. This way, you can save time in your daily work when using deformation fields for the “Morph mesh” or the "Compensation mesh" function, or for adaptive ROIs or coordinate measurement templates.

You can now directly import newer NSI formats, without the need for an extra tool. This makes working with newer NSI formats easier and more robust.

Sharing comprehensive inspection results just became even easier. The new HTML format is an all-in-one solution that also supports interactive elements, like part or result 3D views. These self-contained documents eliminate the need for a separate viewer application and are easily accessible with any Chromium-based browser like Edge or Chrome.

Simplify standard conform measurements with direct support for modifier symbols. These include two-point measurements [LP], the envelope requirement (E), and global modifier symbols like [GG], empowering easy evaluations for many size features.

You can now specify the sphere radius in length units, even on anisotropic data sets. Enjoy significantly boosted performance, reaching computation speeds that are more than 50 times faster — specifically noticeable when utilizing larger radius values.

PNG format for streamlined image stack import and export
You can now bypass the need for additional file conversions when using PNG as a storage or data exchange format. Enjoy a faster workflow for importing and exporting your volume data.
New DICONDE export
Volume data can now also be exported in the DICONDE format, which includes the existing tags. For volumes that were not imported from DICONDE, the necessary tags are created on the fly.

Experience better image saving capabilities with native PNG format support, our new feature allowing lossless compression and 3D view images that include an alpha channel. Spice up your presentations with partially transparent images that pop!

In the past, transferring metainformation like DICONDE tags between different volumes in a scene was impossible. With this feature, you can now easily move this essential information, even when creating entirely new volumes from initial scan results. This enhancement ensures traceability is maintained throughout your process, keeping your work consistent and structured.

Improved VGEasyPore relative mode
We've improved the relative mode in VGEasyPore to enable easier and more precise pore detection. This updated version* empowers precise pore identification with locally adaptive results, all by simply setting a contrast percentage without the need to manage absolute gray values. The default contrast value of 20% is suitable for most datasets, often eliminating the need for any further adjustments.
*The previous relative mode is still available, ensuring you can still seamlessly run existing analyses and VGinLINE jobs.
Faster VGEasyPore
VGEasyPore now runs up to three times faster on datasets with many small potential indications**. This significant performance boost will save your valuable time when working with noisy data, making your process more efficient than ever before.
**While the voxel count and number of smallest indications may differ to past results due to the new voxel-exact calculation, the volume and shape features of the detected indications in the results table is not affected and will not change.

With the new function "Crop indications at freeform ROI edges", you can now decide whether pore feature parameters should only be evaluated within the ROI boundaries or, if desired, also within and beyond them. This applies in particular to detected pores that are intersected by the ROI boundaries and has a huge impact on the results of the porosity analysis on an ROI toleranced with a P 203 porosity key.
The new setting enables a foundry-related, application-specific customization of the porosity evaluation with regard to the application of the P 203 porosity key code to selected ROIs to avoid false-negative analysis results*.
*It is also the new default, but if you rely on the old behavior, you can disable it for newly created analyses. Existing analyses and evaluations will have it already disabled, to maintain consistency with previous versions.
Read the basic requirements below or download the PDF for the complete system requirements for VGinLINE.
Windows 10* Enterprise 64-bit
Windows 10* Professional 64-bit
Windows 11 Enterprise 64-bit
Windows 11 Professional 64-bit
*VGinLINE will no longer support Windows 10 as of version 2025.3
Minimum: x86-64 CPU with instruction set SSE 4.1. ARM processors are not supported.
Recommended: Performant Intel or AMD multi-core processors, e.g., Intel® Core™ i7 or i9 or Xeon® Gold processors with 3 GHz or higher.
Minimum:
VGinLINE requires a minimum of 4 GB of free memory. However, the actual free main memory needed for creating or loading a complete project will usually be significantly higher, since it depends on the size of the data set and the analyses to be performed.
Recommended for professional use:
- 16-bit data set with 1024 slice images. Slice image with 1024 x 1024 pixels. 1024³ = 2 GB of data
=> Visualization only: minimum 4 GB free memory
=> Data analysis: 8–16 GB free memory - 16-bit data set with 2048 slice images. Slice image with 2048 x 2048 pixels. 2048³ = 16 GB of data
=> Visualization only: minimum 32 GB free memory
=> Data analysis: 64–96 GB free memory - For performing advanced analyses, such as transport phenomena or structural mechanics simulations, a free memory of 50 GB or more is recommended.
- Typical for industrial use with data set sizes as in the examples above (2 to 16 GB) is a PC with at least 64 (for one data set) to 512 GB RAM (for multiple data sets). Higher RAM clock speeds are recommended.