APPLIED AI CAPABILITIES
OUR CAPABILITIES
Sioux AI Solutions provides control over complexity and accelerates innovation in high-tech industries. We explore, uncover and deliver the best solution for your challenges.
We create measurable value by accelerating your innovations while providing control over complexity. We have an extensive knowledge base.
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COMPUTER VISION AI
Challenge:
With growing visual sensors, photo and video cameras, the need for fast and accurate processing of these images grows. AI-powered vision systems have a benefit over classical computer vision in many applications, and definitely over manual interpretation and monitoring. Nowadays, anyone can make use of available AI models to process an image, the challenge is in making sure you build a solution that is fast, accurate, robust, trustworthy, and integrated in your application. Enabling new capabilities for the future, like autonomous systems.
Solution:
We have experience with a broad range of vision AI use case and technique and have developed our own set of tools to handle any computer vision challenge. Ranging from object detection, tracking, classification, instance segmentation, detecting anomalies, etc. We leverage available foundational models as starting point, tailoring, finetuning and further developing them to your specific use case.
Techniques and example applications:
Semantic segmentation & object detection
Real-time cancerous tissue detection on whole slide images of breast tissue.
Anomaly detection
Detect and localize defects without supervised labels for semicon manufacturing
Synthetic data
Generation of synthetic piping and instrumentation diagrams for automated analysis.
Foundational models
Advanced ML-based cell segmentation workflows for analysing microscopy images.
SENSOR AI
Challenge:
As smart systems become more prevalent, the number of sensors embedded in machines, vehicles, and devices is growing exponentially. It opens up new possibilities, but also comes with some challenges:
- More data to process, with increasingly demanding latency and performance requirements; how to handle this overload of data real-time?
- Sensor and real-world data is often noisy, incomplete or inconsistent; how to retrieve valuable and accurate information from this?
- Security and confidentiality; how to handle this data with care?
Solution:
We have and apply a toolbox of techniques, ranging from classical signal processing to advanced deep learning and Bayesian methods; as well as making sure the algorithm and implementation design is ready for real-time, resource-efficient processing and deployment, on the edge, in the cloud or inside your application.
Techniques and example applications:
Sensor Fusion
Combine multi-modality data sources (Lidar, GPS, camera) for increased ADAS performance.
Bayesian Machine Learning
Incorporate scarce measurements and physical models to create high-resolution overlay predictions.
Signal Processing
Improve reliability of fetal hearth rate detection during delivery to safeguard mother & baby health.
State Estimation
Enhance the precision and robustness of magnetic marker localization in tumour tissue.
PHYSICS AI
Challenge:
Both traditional physical modelling and pure AI modelling both have pro’s and con’s. Traditional physics simulations are powerful; they achieve a high accuracy and don’t need a lot of real or experimental data. But they are often very slow and are hard to generalize beyond modelled conditions. On the other side, the pure AI and data-driven models can have low computational costs (during inference) and adapt quickly to new patterns. The downside of those models is that they may produce unphysical results if that is not captured by the data, they require vast amounts of data and are fully black box.
Solution:
Physics AI combines the best of both worlds, incorporating physical knowledge and techniques in a data-driven AI approach. E.g. by using physics-constraints as part of AI model training. On the other hand you can use the speed of AI inference for parts where physical simulations are most time-consuming. This results in a modelling approach that is fast, adapts quickly to new patterns while preserving physical validity, increases interpretability and robustness, and leads to high accuracy.
Techniques and example applications:
Fast Surrogate Modelling
Real-time model-based reconstruction by replacing slow Maxwell solver by fast machine learning model.
Physics-Informed Neural Networks
Enable real-time overlay corrections by modelling heat-induced deformations with PINNs.
Hybrid modelling
Combine cheaper models and expensive simulations to optimize temperature uniformity in refrigerated containers.
AI-driven design optimization
Wearable sensor design optimization using in-the-loop machine learning.
GENERATIVE AI
Challenge:
Current analysis methods of logs, documents and text files in industrial settings but also other domains like public services, archiving, as well as internal business processes are inefficient, relying heavily on manual analysis and actions, complex dashboards, and resource-intensive ML algorithms. These methods fail to scale to multi-sensor problems and do not utilize textual data and multi-modal system documentation.
Solution:
By integrating Large Language Models with autonomous AI agents, we enable a powerful system capable of interpreting complex text data (documents, files, logging), generating context-aware insights, and making informed decisions with minimal human intervention. LLMs provide the linguistic and contextual intelligence to translate raw data into meaningful narratives, while AI agents leverage this understanding to autonomously analyze logs, identify patterns, and take action. This synergy reduces cognitive load for engineers, enhances operational efficiency, and ensures timely, accurate responses across technical and stakeholder domains.
Techniques and example applications:
LLMs and LLM Engineering
Making historical transcriptions accessible using AI.
Retrieval Augemented Generation (RAG)
Generate actionable insights from large quantities of multi-modal telemetry data using LLMs.
Agentic AI
Human-in-the-loop workflow for large-scale vectorization of cadastral field sketches.
Conversational AI
Intelligent analysis of equestrian trainings combining natural language processing and saddle sensor data.
WHAT WE DO
We create measurable value, by accelerating your innovations, while providing control over complexity. We have an extensive knowledge base:
- Broad and deep AI knowledge; understanding of the inner workings of AI techniques as well as how and when best to apply them (and also when not!)
- Broad engineering background, with people ranging from applied mathematics, data science, physics, electrical engineering, mechanical engineering. 65% has a PhD, 35% MSc.
- We are used to working in multi-disciplinary, with our customers but also internally within Sioux with our colleagues from the other departments
- We have a strong link with Academics, in the form of collaborations with graduate students and interns, colleagues who have part-time (teaching) positions at University of Technology Eindhoven.
START YOUR AI JOURNEY BACKED BY INSIGHTS FROM 100+ PROJECTS.
BRING AI
TO LIFE 
Curious how we can help you? Send us your questions, big or small, and we’ll get back to you within one working day.
CONTACT US AT AI-SOLUTIONS@SIOUX.EU