Vision guided robotics (VGR)

For reasons of flexibility and adaptability, there is a trend in the bin picking segment moving from rule-based or classical computer vision (CV) to computer vision based on deep learning. To facilitate robust and reliable performance in object identification and segmentation tasks leading to successful gripping of an object, the deep learning algorithms require large datasets that represent variations in objects, textures and environmental variables.
Capturing real data with 3D cameras/sensors in a lab before the algorithms are deployed in a manufacturing or logistics environment and also the training on a production site is a time, efforts and cost intensive process. This is significant especially in case of organic objects, object categories where each unit always has a unique look and shape or generic robotic vision applications, which need to be trained on hundred to thousands of different objects.

Photo showing a robot arm grasping into a package box.
By using synthetic image data, the process of collecting and annotating 3D image data can be avoided with a solution that shortens the data acquisition process from years to weeks. Objects (CAD) can be easily imported or selected from a library. Those objects can be physically simulated, placed or distributed based on your needs. Variations can also be simulated in the environment where the objects are located. As always, the synthetic image data comes annotated, with all the image channels and information that an industrial 3D sensor/camera would provide.

Example Use Case for Synthetic Data for
Vision guided robotics (VGR)

Metal parts sorted in a manufacturing bin
Real image of a bin on a conveyor belt in a production environment
Green bin with fruits in it on a conveyor belt.
Real image of a bin on a conveyor belt with metal parts in it
Real image of a bin on a conveyor belt with metal parts in it

Building High-Quality Models In 3 Steps

Explore our services: Efficiently leveraging data analysis, data generation, and integration tools for superior model performance.
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Data Insight

Review and analysis of existing data to provide key insights and recommendations for optimizing your dataset.
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Data Generation

Generation of synthetic data and data augmentation to create an optimal dataset based on key insights from the analysis.
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Data Import

Tools for importing data into industry-standard deep learning software.

Why Use Synthetic Image Data for Vision guided robotics (VGR)?

Incorporating synthetic image data into your automated visual inspection processes not only enhances efficiency and accuracy but also provides a scalable solution that adapts to the evolving demands of modern manufacturing and quality assurance systems.

Reduce Time and Effort

Manually capturing data for vision guided robotics can be a time-consuming and labor-intensive process. By using synthetic image data, the time required for data collection can be significantly reduced from months or years to just weeks. This acceleration helps speed up the development and deployment of robotic systems, allowing for quicker iterations and improvements.

Variation and Balance

In real production environments, achieving the necessary variations in data—such as different object positions, orientations, and lighting conditions—is complex and often impractical. Synthetic data generation enables precise control over these variables, ensuring that the dataset includes a balanced and comprehensive range of scenarios. This is crucial for training robust robotic vision systems capable of performing reliably in diverse and dynamic settings.

Reduce Costs

The creation of synthetic image data is not only faster, but also more cost-effective compared to traditional data acquisition methods. The process eliminates the need for costly setups, equipment, and manual labour associated with capturing and annotating real-world data. This cost efficiency allows for the creation of large and diverse datasets without the financial burden typically associated with extensive data collection efforts.

Reduce Annotation Overhead

Annotating data, especially 3D data, is a complex and resource-intensive task. Synthetic image data comes pre-annotated, as the generation process includes detailed labelling of objects and features within each image. This pre-annotation reduces the time, effort, and costs associated with manual annotation, ensuring consistency and accuracy across the dataset. Pre-annotated synthetic data accelerates the training process for vision guided robotics, enabling quicker model deployment and fine-tuning.

Additional Resources

Explore Key Concepts and Benefits of Synthetic Data and corresponding Annotations.

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What is Synthetic Data?

Learn about the fundamentals of synthetic data, its generation process, and its applications in various industries.

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Why Use Synthetic Data?

Understand the benefits of synthetic data, including enhanced model training, cost efficiency, and the ability to generate rare or hard-to-capture scenarios.

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How Real is Synthetic Data?

Explore the realism and accuracy of synthetic data compared to real-world data, and how it can be tailored to match specific use cases.

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Annotations

Explore the critical role of high-quality annotations in dataset preparation. Our synthetic image data comes fully annotated, as our generation process precisely tracks and identifies every element within each image, ensuring consistent and accurate labelling.

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3D Rendering

Our 3D rendering process leverages advanced computer graphics techniques to create highly realistic and detailed synthetic images. This approach allows us to simulate a wide range of scenarios and environments.

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Generative Approaches

Our generative data creation techniques use advanced AI models to enhance realism and add details to the 3D rendered synthetic image.
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