The DILAPRO project aligns with the EU's vision for a digital, circular, climate-neutral, and
sustainable economy. Addressing key challenges in
manufacturing, it aims to drive decarbonization and the Green and Digital Transitions through two
innovative software tools.
DILAFACT focuses on sustainable laser process planning, enabling manufacturers to integrate
sustainability into production, reducing raw material
consumption and waste production.
DILACERT addresses certification and standardization hurdles in laser and additive manufacturing,
streamlining data
processing and paving the way for remote, automated digital certification. Developed on specific
materials and laser technologies, these tools aim for long-term impact,
fostering community contributions and ensuring sustainability in European high-precision
manufacturing. DILAPRO offers durable, scalable solutions with detailed plans for IP
management and post-project exploitation, contributing to the transformation of the manufacturing
industry for the long term.
DILAPRO aims to enhance fusion algorithms, computing efficiency, and big data processing for
laser-based manufacturing. It prioritizes cybersecurity and physical security through standardized
protocols.
Employing Digital Twin (DT) technology, it integrates knowledge from various industries using
artificial neural networks, optimization, and technological components. Advanced automation, Big
Data processing,
and Machine Learning (ML) are utilized for data collection from sensors, calibrated by physical
simulation.
DILAPRO develops a modular knowledge repository model, shared across industries, integrated into
DILAFACT software. Sensor usage focuses on in-process part certification, especially for additive
manufacturing, addressing challenges like integration, algorithms, and software. The project
proposes a
common methodology for physical simulation, covering the entire additive manufacturing cycle and
laser surface treatment. DILAPRO addresses digital certification preparation, machine learning on
parts
and machines, aiming to contribute to future standards and policies in collaboration with industry
and international groups. The project's innovative approach targets quality control challenges in
laser
processes, emphasizing consistency, reproducibility, and efficiency in laser-based manufacturing.