Innovation and research are at the core of SCIIL’s mission to develop intelligent software solutions for manufacturing. Through national and European funding programs as well as self-funded initiatives, SCIIL AG and SCIIL Baltic UAB continuously drive innovation in AI, quality management, industrial digitalization, and smart manufacturing. This page provides an overview of our current and completed research and innovation projects.
SCIIL BALTIC UAB implements the “REPORTIO II” project,
an AI-based solution for poultry farms

Sciil Baltic is implementing the Reportio II project to add new, user-relevant solutions to the smart farm monitoring system based on IoT sensors, learning systems and analysis algorithms.
After the successful implementation of the project, the company’s existing product, Reportio, will be complemented with new smart solutions.
- Project title: “REPORTIO II”
- Project executing agency: UAB “Sciil Baltic”
- Project objective: The aim of the project is to add new solutions to the REPORTIO product that are relevant to users.
Total project volume: EUR 1,638,052.06
Support from the European Regional Development Fund: EUR 737,123.44
Projekt-Updates:
VISION – AI-supported visual quality inspection in industrial production
Project sponsor: SCIIL AG, Germany
Funding program: Tax research allowance in accordance with the Research Allowance Act (FZulG), Federal Republic of Germany

Project objective
Development of an AI-based, OEM-agnostic platform for automated visual quality inspection in industrial production environments. The system is designed to detect dynamic and static defects in real time and provide digital support for quality processes directly on the store floor.
Project description
As part of Innovation & Research, SCIIL is developing a modular AI visual inspection solution that integrates industrial camera systems, edge processing, server architecture and a central data and application platform.
The core of the research activities is the development of innovative deep learning models for the detection of complex, variable defect images – for example wrinkles, material deformations, soiling or assembly deviations. Both dynamic defect patterns (e.g. position-dependent defects) and static characteristics are analyzed.
The technological challenge lies in particular in:
- the development of robust training methods for widely varying production conditions,
- the real-time processing of large amounts of image data,
- scalability to different camera types and OEM environments,
- and integration into existing production, MES and quality management systems.
The project is developing prototypes, implementing pilot installations and continuously optimizing algorithms. The aim is to develop a market-ready, industrially deployable solution that can be operated both on-premise and in hybrid architectures.
Updates to the project: