Blog

Discover how synthetic data revolutionized our tank detection model training.

Obstacles with Conventional Data in Detecting Tanks

Training a tank detection model using conventional data presents several challenges. One of the biggest obstacles is the scarcity of labeled data. Tanks are not everyday objects, and acquiring enough annotated images for training is extremely difficult due to confidentiality of images.

Additionally, conventional data often lacks diversity. Real-world scenarios can vary greatly, and it’s difficult to capture all possible variations of tanks in different environments, lighting conditions, and angles. This lack of diversity can lead to a model that performs well in controlled conditions but fails in real-world applications.

What is Synthetic Data and Why It Matters

Synthetic data is artificially generated data that mimics real-world data. Unlike conventional data, synthetic data can be produced in large quantities and tailored to specific needs. This allows for the creation of highly diverse datasets that cover a wide range of scenarios.

Synthetic data is crucial for training machine learning models because it provides the volume and variety needed to improve model robustness. Additionally, synthetic data comes fully labelled, so no annotation effort is needed. It also helps in situations where collecting real-world data is impractical or impossible, such as in highly controlled or dangerous environments.

How We Created Synthetic Data for Tank Detection

To create synthetic data for tank detection, we used our procedural engine. Thanks to our proprietary technology, we generated various types of tanks and in different environments. These environments included diverse terrains, lighting conditions, and weather scenarios to ensure a comprehensive dataset. The procedural nature of our engine allows user to control image parameters ranging from the environment, lighting, camera lenses and objects in the image. By setting these restrictions, the engine can generate an unlimited number of images that meet computer vision model’s needs. This huge number of images helps the model learn to focus on the essential features of tanks rather than being influenced by specific visual patterns.

Example of synthetic images used to train tank detection model.

The Impact of Synthetic Data on Model Performance

The use of synthetic data had a significant positive impact on our tank detection model. The model trained on synthetic data demonstrated high accuracy and robustness. It excelled at detecting tanks in various conditions and environments, showing great generalization capabilities. Additionally, the training process became more efficient. With a large and diverse synthetic dataset, the model required fewer training iterations to achieve high performance, saving both time and computational resources.

More Content

News

AI Verse Joins DIANA’s 2025 Cohort: Advancing AI Training Across the NATO Alliance

AI Verse is proud to announce its selection to DIANA’s prestigious 2025 cohort, marking a significant milestone for the company. Out of over 2,600 applications from leading innovators across the NATO Alliance, AI Verse proudly stands among the 75 companies chosen to participate in this Accelerator Programme. DIANA, NATO’s Defense Innovation Accelerator for the North […]

Blog

Real-Life Data vs. Synthetic Data: How Computer Vision Engineers Allocate Their Time

Computer vision engineers are at the forefront of teaching machines to “see” and understand the world. Their daily practices, and ultimately the pace of AI innovation, are shaped by the kind of data they use—either real-life imagery painstakingly collected from the physical world, or synthetic data generated by advanced simulation engines. Let’s examine how these […]

Blog

How We Leveraged Synthetic Images to Train a Fall Detection Model

In the development of a computer vision fall detection model, one of the biggest challenges is obtaining high-quality, well-annotated image datasets. Real-world fall datasets are scarce due to privacy concerns, ethical constraints, and the difficulty of capturing diverse fall scenarios in real life. We tackled this challenge by leveraging synthetic images to train a highly […]

Generate Fully Labelled Synthetic Images
in Hours, Not Months!