We use cookies, similar technologies and tracking services

This website uses cookies, similar technologies and tracking services (hereinafter referred to as “Cookies”). We need your consent for Cookies, which not only serve to technically display our website, but also to enable the best possible use of our website and to improve it based on your user behavior, or to present content and marketing aligned with your interests. For these purposes, we cooperate with third-party providers (e.g. Salesforce, LinkedIn, Google, Microsoft, Piwik PRO). Through these partners you can also receive advertisements on other websites.
If you consent, you also accept certain subsequent processing of your personal data (e.g. storage of your IP address in profiles) and that our partners may transfer your data to the United States and, if applicable, to further countries. Such transfer involves the risk that authorities may access the data and that your rights may not be enforceable. Please select which Cookies we may use under ”Settings”. More information, particularly about your rights, e.g. to withdraw consent, is available in our Privacy Policy .


Only technically necessary Cookies

Accept everything

Below, you can activate/deactivate the individual technologies that are used on this website.

Accept All


These Cookies make a website usable by providing basic functions such as page navigation, language settings, Cookie preferences and access to protected areas of the website. Cookies in this category additionally ensure that the website complies with the applicable legal requirements and security standards. Owing to the essential nature of these Cookies, you cannot prevent their use on our website. Details about these Cookies are available under 'More information'.

Functionality and personalization

These Cookies collect information about your habits when using our web pages and help us to enhance your user experience by tailoring the functions and attractiveness of our web pages based on your previous visits, location and browser settings. They also enable access to integrated third-party tools on our website (e.g., Microsoft Azure for single sign-on authentication). This can involve transferring your data to the United States (for information on the risks involved read Clause 1.5 of our Privacy Policy). If you refuse these Cookies, you might not be able to access the full functionality of the website. Details about the tools we use are available under 'More information'.


These Cookies are used to compile basic usage and user statistics based on how our web pages are used (e.g. via Google Tag Manager, Piwik PRO). If you accept these Cookies, you simultaneously consent to your data being processed and transmitted to the United States by services such as Salesforce Pardot (for information on the risks involved read Clause 1.5 of our Privacy Policy). Details about the tools we use are available under 'More information'.

Marketing and social media

These Cookies help third-party sources collect information about how you share content from our website on social media or provide analytical data about your user behavior when you move between social media platforms or between our social media campaigns and our web pages (e.g., LinkedIn Insights). Marketing Cookies from third-party sources also help us measure the effectiveness of our advertising on other websites (e.g. Google Ads, Microsoft Advertising). We use these Cookies to optimize how we deliver our content to you. The third-party sources and social media platforms we use can transfer your data to the United States (for information on the risks involved read Clause 1.5 of our Privacy Policy). If you accept these Cookies, you simultaneously consent to your data being transferred and processed as described above. Details about the tools we use and our social media presence are available under 'More information'.

More information

Save Settings

Artifical intelligence for realtime decisions

What DXQanalyze stands for

DXQanalyze is one of the four product families of our Digital Factory. The family includes the analysis software DXQequipment.analytics, which records all data during the painting process as well as during the entire car body drying process. As a further member of DXQanalyze, DXQplant.analytics detects irregularities in the painting quality and meticulously identifies possible causes. This allows to increase the first-run rate and thus the overall equipment effectiveness.

The software products of the Digital Factory, united under the name DXQ, are divided into four product families: DXQanalyze, DXQoperate, DXQcontrol and DXQsupport. In this article we would like to introduce you to the two analysis tools DXQequipment.analytics and DXQplant.analytics of the DXQanalyze product family.


You may already know the analysis tool DXQequipment.analytics from our article "Smart paint shop with DXQequipment.analytics" published in March 2019.

This tool helps to collect, evaluate and visualize robot and process data. The software seamlessly records all data from the painting process and analyzes it. Based on this, a ‘digital fingerprint’ is created for each painted car body. Learn more about the use of DXQequipment.analytics in the painting process in our article "Smart Paint Shops with DXQequipment.analytics".

DXQequipment.analytics for oven

The analysis software DXQequipment.analytics shown above has been extended by a new module. It can now be used for the first time in the drying process.

The software DXQequipment.analytics for oven is an Industrial Internet of Things (IIoT) solution, which simulates body heating curves in the oven in real time. This means that paint shop operators can see the current temperature profiles directly on the workpiece from the current drying process and additionally get various body-related characteristic values. This enables the conditions in the oven, which are influenced by a variety of parameters, to be traced back precisely for each individual body. Deviations from the ideal process can then be identified at an early stage, and appropriate countermeasures put in place.

How does DXQequipment.analytics for oven work?

The software’s algorithm calculates the heating curves at different measuring points on the body based on the current system parameters. An optical measurement inside the oven, which serves as a reference point, ensures the quality of the calculated profiles in the long term. Each body gets its own electronic workpiece data record where all the data is stored. In addition, all physically measured data from test runs is stored centrally and used to train the algorithm.

How does DXQequipment.analytics for oven contribute to quality improvement?

In order to guarantee a consistently high quality of the painting result, the specific heating behavior for each body type must be scrupulously observed. Up to now, the processes were adjusted based on data from the initial calibration runs during commissioning and from test runs conducted at intervals of several weeks during production. In the interim, the operator had no information about the actual heating behavior on the body. With DXQequipment.analytics we can now close this information gap and contribute to quality improvement.

With DXQequipment.analytics for oven, we place the focus on the quality of plant operation. The real-time simulation of heating curves, a clear visualization, and the central, continuous data storage greatly increase transparency for the operator. At the same time, they serve as an individual quality certificate for the entire drying process for each individual body. The tool uses the body-specific data and relates them to quality data generated during the inspection of the end product. This allows to determine which causes in the process influence the quality of the end product. DXQequipment.analytics for ovens also provides an important component for the Dürr tool DXQplant.analytics by storing body-specific data.


Our third software of the DXQanalyze family is DXQplant.analytics. On the way through a paint shop, each body undergoes different complex process steps. The basic concept of DXQplant.analytics is to save information from different sources via the industrial Internet of Things (IIoT) specifically for each individual body in a whole-of-life record, compare this information with quality data, and statistically evaluate the data of all the vehicles produced. Its goal is to determine the normal behaviour of the plant with its process steps from the collected data sets. Artificial intelligence is used to identify patterns, compare them with quality data, and derive consequences for a targeted optimization of the first-run rate.

How does DXQplant.analytics work?

DXQplant.analytics uses big data models to identify previously unknown interrelationships in the paint shop. The infrastructure for the digital data flows is the IIoT platform ADAMOS, which is used to collect all production, process, and quality data. The software DXQplant.analytics determines subsequently the quality condition from this information and visualizes it on a dashboard for the paint shop operator. Our customers can find a quick overview of quality-related performance indicators, such as the production rate including post-processing and the second-run rate. The performance indicators are automatically associated with the recorded quality defects and evaluated on the basis of the defect cause. The paint shop operator is shown a visualization of where quality defects occur more frequently on the bodies, and in this way is helped to find production vulnerabilities.
Our DXQplant.analytics software enables our customers to continuously optimize their plant and thus increase the first-run rate in the long term.

How does DXQplant.analytics contribute to quality improvement?

DXQplant.analytics uses artificial intelligence to identify systematically occurring quality deviations and uncover their causes in the process. With the help of self-learning data models, recurring patterns in recorded quality data are determined and linked to anomalies in the production process. Up to now, defects were often only found during the visual inspection, meaning that bodies had to be reworked. In contrast, DXQplant.analytics uses the historical data to determine that the defect is not sporadic but rather a systematic defect pattern and provides advance information about impending quality problems. With this tool we can considerably improve the quality management in paint shops and production plants.